Ozone hydrotherapy instrument

Abstract

The embodiment of the invention provides an ozone hydrotherapy instrument, and relates to the field of hydrotherapy instruments. The ozone hydrotherapy instrument comprises a machine shell, a water storage tank, an ozone generating device, a spiral pipe, a confluence piece and a water passing pipeline. The water storage tank is arranged in the machine shell, and the ozone generating device is connected with the water storage tank; the water storage tank is connected with the confluence piece through an output pipe; the water passing pipeline is connected with the confluence piece and is used for conveying purified water into the confluence piece; the confluence piece is connected with the input end of the spiral pipe, and the output end of the spiral pipe is connected with a drainage pipeline. According to the device, water conveying, ozone generation, mixing and output are continuously carried out, cleaning and sterilization operation can be synchronously completed in the same water flow process, the nursing process is remarkably simplified, and the manual operation intensity is reduced. The stably output ozone water is beneficial to improving the scalp microenvironment and inhibiting the breeding of microorganisms related to seborrheic alopecia in scalp care application.

Description

Technical Field

[0001] This invention relates to the field of hydrotherapy equipment technology, specifically to an ozone hydrotherapy equipment. Background Technology

[0002] In the pre- and post-operative care of scalp and skin for chronic, slow-healing wounds, dermatitis, eczema, and hair transplantation, the wound or skin surface often contains exudate, necrotic tissue, and bacterial growth. Improper handling can easily lead to infection, delay the healing process, and even complications. Therefore, in the above treatments and care, hydrotherapy cleaning and sterilization of the affected area is usually necessary. Continuous, gentle liquid rinsing removes dirt, reduces bacterial load, and creates a favorable local environment for subsequent repair and healing. This type of hydrotherapy sterilization has become an important part of clinical nursing. Simultaneously, in scalp care and hair transplantation-related care scenarios, hydrotherapy cleaning is also used to improve the scalp microenvironment and reduce the accumulation of oil and metabolites. Existing research and applications indicate that ozone water, due to its excellent bactericidal properties and low skin irritation, has certain application value in scalp care. It plays a positive role in inhibiting seborrheic alopecia-related microorganisms, improving the scalp environment, and providing auxiliary care for preventing hair loss and strengthening hair.

[0003] In existing technologies, the aforementioned hydrotherapy and sterilization procedures mostly rely on manual operation by medical staff, typically using saline or other disinfectants to rinse and sterilize wounds or skin. During scalp cleaning and care, detergents are often used to enhance oil removal and cleaning effects. However, repeated or prolonged use of these detergents can irritate the hair cuticle and scalp barrier, weakening the scalp's self-regulating ability and negatively impacting hair loss prevention and hair strengthening. Furthermore, the widespread use of detergents leads to residue discharge with the water, increasing environmental pollution. In contrast, ozone water achieves both cleaning and sterilization while reducing reliance on detergents to some extent, thus minimizing adverse effects on hair and scalp and reducing the environmental pressure from detergent emissions. However, current ozone hydrotherapy and sterilization procedures are mostly performed manually in steps, still suffering from cumbersome operations, high labor intensity, discontinuous cleaning and sterilization processes, and poor uniformity and controllability. These methods fail to meet the actual needs of clinical and nursing settings for efficient, convenient, and safe hydrotherapy sterilization, and require further improvement. Summary of the Invention

[0004] According to an embodiment of the present invention, an ozone hydrotherapy device is provided to address the problems mentioned in the background art.

[0005] In a first aspect of the invention, an ozone hydrotherapy device is provided.

[0006] The ozone hydrotherapy device includes: a housing, a water tank, an ozone generator, a spiral tube, a manifold, and a water pipe. The water storage tank is located inside the casing, and the ozone generator is connected to the water storage tank to convert the water in the water storage tank into ozone. The water storage tank is connected to the manifold via an output pipe for delivering ozone; The water supply pipe is connected to the manifold and is used to deliver purified water into the manifold; The manifold is connected to the input end of the spiral tube, and the output end of the spiral tube is connected to a drainage pipe.

[0007] Preferably, it also includes a water tank, which is disposed on the outside of the housing; The water storage tank is connected to a first water supply pipe; The upper end of the water tank is provided with an openable cover, and the lower end of the water tank is provided with a second water supply pipe, which is connected to the first water supply pipe.

[0008] Preferably, the water supply pipeline includes a first water supply pipe, a flow regulating component, and a second water supply pipe; the two flow regulating components are respectively connected to the first water supply pipe, the ends of the two flow regulating components away from the first water supply pipe are connected to the second water supply pipe, and the ends of the second water supply pipe away from the flow regulating components are connected to the manifold.

[0009] Preferably, the flow regulating component includes a first diverter pipe, a second diverter pipe, and two solenoid valves; the lower ends of the first diverter pipe and the second diverter pipe are both connected to the first water pipe, and the upper ends of the first diverter pipe and the second diverter pipe are both connected to the second water pipe; the two solenoid valves are disposed on the first diverter pipe and the second diverter pipe.

[0010] Preferably, it also includes a gas-liquid separation device, wherein the manifold is a manifold tee connector, and the gas-liquid separation device is disposed between the manifold and the spiral tube, so that the liquid entering the spiral tube is separated into gas and liquid in the gas-liquid separation device, and the ozone gas that has not dissolved in the liquid is discharged.

[0011] Preferably, the gas-liquid separation device is located at the axis of the spiral tube and is wound around the spiral tube. The gas-liquid separation device is provided with an ozone catalyst containing an ozone catalyst. The output end of the gas-liquid separation device is connected to the spiral tube, and the input end of the gas-liquid separation device is connected to the manifold.

[0012] Preferably, the ozone generator is located on the lower side of the water storage tank, and both the input and output ends of the ozone generator are connected to the bottom wall of the water storage tank.

[0013] Preferably, the water storage tank is equipped with a liquid level sensor.

[0014] Preferably, the surface of the housing is provided with a display panel.

[0015] Preferably, the side wall of the housing is provided with control buttons.

[0016] One or more technical solutions provided in this application have at least the following technical effects or advantages: This invention provides an ozone hydrotherapy device that integrates the preparation of ozone water, hydrotherapy cleaning, and sterilization processes. This allows for continuous water delivery, ozone generation, mixing, and output. Compared to existing methods that rely on medical staff manually applying saline solution and disinfectant, this device simultaneously completes cleaning and sterilization within the same water flow, significantly simplifying the nursing process and reducing manual labor intensity. Furthermore, by rationally controlling the water flow and ozone mixing process, ozone dissolves more stably and evenly in the water, ensuring the consistency and reliability of the hydrotherapy sterilization effect and reducing the impact of human error on the nursing outcome. This improves the efficiency and safety of hydrotherapy sterilization in the pre- and post-operative care of chronic, difficult-to-heal wounds, dermatitis, eczema, and hair transplantation procedures. In addition, the stably output ozone water helps improve the scalp microenvironment in scalp care applications, inhibiting the growth of microorganisms related to seborrheic alopecia, and to some extent playing an auxiliary role in preventing hair loss and strengthening hair. It also reduces reliance on detergent-based cleaning products, thereby reducing the potential adverse effects of detergents on hair and scalp, and minimizing environmental pollution caused by detergent residue emissions.

[0017] It should be understood that the description in the Summary of the Invention is not intended to limit the key or essential features of the embodiments of the present invention, nor is it intended to restrict the scope of the invention. Other features of the invention will become readily apparent from the following description. Attached Figure Description

[0018] The above and other features, advantages, and aspects of the various embodiments of the present invention will become more apparent from the accompanying drawings and the following detailed description. In the drawings, the same or similar reference numerals denote the same or similar elements, wherein: Figure 1 A first-view perspective three-dimensional structural schematic diagram of an ozone spa device according to Embodiment 1 of the present invention is shown; Figure 2 A second perspective three-dimensional structural schematic diagram of an ozone spa device according to Embodiment 1 of the present invention is shown; Figure 3A three-dimensional structural diagram of the internal structure of the ozone hydrotherapy device according to Embodiment 1 of the present invention is shown. Figure 4 A schematic diagram of the connection structure between the water storage tank and the ozone generator of the ozone hydrotherapy device according to Embodiment 1 of the present invention is shown; Figure 5 It shows Figure 4 Explosion diagram of the middle structure; Figure 6 A schematic diagram of the connection structure of the water pipe, spiral tube and water tank of the ozone hydrotherapy device according to Embodiment 1 of the present invention is shown. Figure 7 A three-dimensional structural schematic diagram of the spiral tube of an ozone hydrotherapy device according to Embodiment 1 of the present invention is shown; Figure 8 A cross-sectional schematic diagram of the spiral tube of an ozone hydrotherapy device according to Embodiment 1 of the present invention is shown; Figure 9 A schematic diagram of the connection structure of the water pipe, spiral tube and water tank of the ozone hydrotherapy device according to Embodiment 2 of the present invention is shown. Figure 10 An exploded structural diagram of the manifold of an ozone hydrotherapy device according to Embodiment 2 of the present invention is shown; Figure 11 A cross-sectional structural schematic diagram of the manifold of an ozone hydrotherapy device according to Embodiment 2 of the present invention is shown; Figure 12 A three-dimensional cross-sectional view of the manifold of an ozone hydrotherapy device according to Embodiment 2 of the present invention is shown. Figure 13 A three-dimensional structural schematic diagram of the hybrid components of an ozone spa device according to Embodiment 2 of the present invention is shown.

[0019] Explanation of reference numerals in the attached figures 1-House, 11-Display panel, 12-Control button, 2-Water tank, 21-Output pipe, 22-First water supply pipe, 23-Level sensor, 3-Ozone generator, 4-Spiral tube, 5-Manifold, 51-Ozone connector, 511-One-way valve, 52-Water inlet connector, 53-Manifold, 531-Bearing ring, 532-Annular grille, 54-Discharge pipe, 55-Mixing assembly, 551-Ozone tube, 552-Rotating component, 5 53-Helical blade, 554-Connecting shaft, 555-Exhaust support arm, 5551-Exhaust port, 556-Roller, 6-Water supply pipe, 61-First water supply pipe, 62-Flow regulating component, 621-First diversion pipe, 622-Second diversion pipe, 623-Solenoid valve, 63-Second water supply pipe, 7-Drainage pipe, 8-Water replenishment tank, 81-Cover, 82-Second water replenishment pipe, 9-Gas-liquid separation device, 91-Ozone catalyst containment chamber. Detailed Implementation

[0020] To make the objectives, technical solutions, and advantages of the embodiments of the present invention clearer, the technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0021] Furthermore, the term "and / or" in this article is merely a description of the relationship between related objects, indicating that three relationships can exist. For example, A and / or B can represent: A existing alone, A and B existing simultaneously, or B existing alone. Additionally, the character " / " in this article generally indicates that the preceding and following related objects have an "or" relationship.

[0022] Example 1 like Figures 1 to 8 As shown, this embodiment provides an ozone hydrotherapy device, including a housing 1, a water tank 2, an ozone generator 3, a spiral tube 4, a manifold 5, and a water pipe 6. The components work together to achieve ozonation treatment of the water and produce a stable output of ozone water for hydrotherapy and sterilization.

[0023] The water storage tank 2 is located inside the casing 1 and is used to store purified water required for the spa, providing a basic water source for the preparation of ozone water. The ozone generator 3 is connected to the water storage tank 2. When in operation, the ozone generator 3 treats the water in the water storage tank 2 to generate ozone, thus forming an ozone-containing water body. By directly applying ozone to the interior of the water body, ozone dissipation into the air can be effectively prevented, improving ozone utilization efficiency and enhancing the bactericidal ability of the water body.

[0024] The water storage tank 2 is connected to the manifold 5 via an output pipe 21, which stably delivers ozone-containing water treated by the ozone generator 3 into the manifold 5. Simultaneously, the water supply pipe 6 is also connected to the manifold 5, allowing communication with an external water source and continuous flow of purified water from outside into the manifold 5. This structural arrangement enables synchronized input of ozone-containing water from the water storage tank 2 and external water from the water supply pipe 6 within the manifold 5.

[0025] During operation, water flows from different directions converge and collide within the manifold 5. Under the influence of the water's kinetic energy, ozone rapidly diffuses and evenly distributes throughout the water, forming ozone water with a certain concentration and stability. This convergence and collision process improves the contact efficiency between ozone and water, enhances the ozone dissolution effect, and provides a reliable guarantee for subsequent hydrotherapy sterilization.

[0026] The output end of the manifold 5 is connected to the input end of the spiral tube 4, forming a further delivery channel for ozone water. After entering the spiral tube 4, the ozone water flows along the spiral path under the guidance of the spiral structure. The spiral tube 4 plays a role in throttling and extending the flow path during the water flow, allowing the ozone water to maintain a certain residence time in the tube, thereby further promoting the full mixing of ozone and water, and improving the stability and bactericidal effect of the ozone water.

[0027] After thorough mixing, the ozone water enters the drain pipe 7 from the output end of the spiral tube 4 and is discharged, ultimately acting on the patient's scalp or affected area for shampooing, hydrotherapy, and sterilization. Through the above structure and working process, this embodiment can ensure continuous water output while achieving sufficient dissolution and stable transmission of ozone in the water, thereby meeting the needs of clinical nursing for hydrotherapy sterilization effects and operational continuity.

[0028] Furthermore, when ozone water is applied to the scalp or affected area, it fully utilizes the strong oxidizing and antibacterial properties of ozone to effectively remove bacteria, fungi, and excess oil from the scalp surface. It is particularly suitable for people with seborrheic alopecia, improving the scalp microenvironment and reducing follicular inflammation, thus playing a supporting role in preventing hair loss and strengthening hair. Simultaneously, compared to traditional cleaning methods that rely on detergents or chemical agents, ozone water achieves cleaning and sterilization effects using water as a carrier. This significantly reduces the irritation and damage caused to the hair shaft and cuticle by surfactants and other ingredients in detergents, minimizing the adverse effects of long-term use on hair resilience and shine. After use, ozone decomposes into oxygen without producing chemical residues, reducing the pollution of water bodies and the ecological environment caused by detergent emissions. This approach balances clinical care effectiveness with environmental friendliness, enhancing the overall safety and sustainability of the application.

[0029] In this embodiment, a water replenishment tank 8 is also included. The water replenishment tank 8 is disposed outside the housing 1 and is used to replenish the water storage tank 2 to ensure the stability of the water supply during continuous use of the device. By placing the water replenishment tank 8 outside the housing 1, it is convenient for users to observe and operate the device, while reducing the impact on the internal structural layout of the housing 1.

[0030] The water storage tank 2 is connected to a first water supply pipe 22, and the lower end of the water supply tank 8 is provided with a second water supply pipe 82, which communicates with the first water supply pipe 22, thereby forming a stable water supply channel between the water supply tank 8 and the water storage tank 2. The upper end of the water supply tank 8 is provided with an openable cover 81, which allows purified water to be added to the water supply tank 8 by opening the cover 81 during use. The operation is simple and suitable for daily maintenance and repeated water replenishment needs.

[0031] A pump is also installed inside the casing 1, which provides power for replenishing water to the water storage tank 2. The pump can be installed on the first water supply pipe 22 or the second water supply pipe 82. In operation, it pumps purified water from the water supply tank 8 through the second water supply pipe 82 and the first water supply pipe 22 to the water storage tank 2, thereby achieving automatic or semi-automatic water replenishment to the water storage tank 2. The pump effectively overcomes the influence of height difference or water resistance on the water replenishment process, ensuring a stable and controllable water replenishment process.

[0032] In actual use, when the water level in the storage tank 2 drops to a preset level, the pump can be turned on to continuously supply purified water from the replenishment tank 8 to the storage tank 2, thereby maintaining the stability of the water level and volume in the storage tank 2 and ensuring the continuity of the ozone water preparation process. The aforementioned replenishment structure, in conjunction with the ozone generator 3 and the water mixing structure, further enhances the overall ease of use and continuous operation of the device while meeting the requirements for hydrotherapy sterilization.

[0033] In this embodiment, the water supply pipeline 6 includes a first water supply pipe 61, a flow regulation component 62, and a second water supply pipe 63, which are connected in sequence to regulate and control the water flow entering the manifold 5. The first water supply pipe 61 is used to connect to an external water source to provide a continuous water input to the system; one end of the second water supply pipe 63 is connected to the flow regulation component 62, and the other end is connected to the manifold 5, so that the regulated water flow can stably enter the manifold 5 to participate in the ozone water preparation process.

[0034] The flow regulating component 62 is disposed between the first water pipe 61 and the second water pipe 63, and is used for water diversion and flow control. Specifically, the flow regulating component 62 includes a first diversion pipe 621, a second diversion pipe 622, and two solenoid valves 623 respectively disposed on the first diversion pipe 621 and the second diversion pipe 622. The lower ends of the first diversion pipe 621 and the second diversion pipe 622 are both connected to the first water pipe 61, and the upper ends of both are connected to the second water pipe 63, thereby forming a parallel water flow channel between the first water pipe 61 and the second water pipe 63.

[0035] In terms of structural design, the first diversion pipe 621 and the second diversion pipe 622 have different diameters, so that under the same water inlet conditions, the water flow rate of the first diversion pipe 621 is greater than that of the second diversion pipe 622. Through the above-mentioned differentiated pipe diameter design, water flow paths of different flow levels can be formed without changing the water source pressure, providing a basis for subsequent flow regulation.

[0036] During operation, water enters through the first water pipe 61 and flows into the first branch pipe 621 and the second branch pipe 622. By controlling the opening and closing of the solenoid valves 623 installed on each branch pipe, water can be selectively directed to flow through a single branch pipe or both branch pipes simultaneously into the second water pipe 63, thereby regulating the total water flow into the second water pipe 63. This regulation method requires no frequent manual intervention and can achieve stable flow control while ensuring continuous water flow.

[0037] The water, after flow regulation, is delivered to the manifold 5 via the second water pipe 63, where it merges and mixes with ozone from the water storage tank 2. Through the coordinated arrangement of the aforementioned water pipe 6 and flow regulation component 62, the amount of water entering the manifold 5 can be adjusted according to actual hydrotherapy needs, thereby facilitating control of the ozone water generation concentration and output, and improving the applicability and stability of the overall hydrotherapy sterilization process.

[0038] In this embodiment, a gas-liquid separation device 9 is also included. The manifold 5 is a manifold tee connector. The gas-liquid separation device 9 is disposed between the manifold 5 and the spiral tube 4, and is used to perform gas-liquid separation treatment on the ozone water output from the manifold 5. By setting the gas-liquid separation device 9 before the ozone water enters the spiral tube 4, the incompletely dissolved ozone gas in the liquid can be effectively separated, thereby preventing free ozone gas from directly entering the subsequent water path and improving the safety and stability of the system operation.

[0039] The gas-liquid separator 9 is positioned along the axis of the spiral tube 4, and is coiled around it by the spiral tube 4, forming an integrated spatial layout between the gas-liquid separator 9 and the spiral tube 4. This achieves functional integration without increasing the overall volume, making the device structure more compact and facilitating overall layout and use. The input end of the gas-liquid separator 9 is connected to the manifold 5, and its output end is connected to the spiral tube 4, ensuring that ozone water undergoes gas-liquid separation treatment before entering the spiral tube 4.

[0040] An ozone catalyst containment chamber 91 is provided on the gas-liquid separator 9. The ozone catalyst containment chamber 91 contains an ozone catalyst for catalytically decomposing the separated ozone gas. Ozone water discharged from the manifold 5 preferentially enters the gas-liquid separator 9. Inside the gas-liquid separator 9, ozone gas that is not dissolved in the water is effectively separated and guided into the ozone catalyst containment chamber 91. Under the action of the ozone catalyst, the ozone is catalytically decomposed into oxygen and then discharged, thereby avoiding the direct emission of ozone gas and its impact on the environment or users.

[0041] After gas-liquid separation, the ozone-mixed water enters the spiral tube 4 from the output end of the gas-liquid separator 9. It flows along the spiral path in the spiral tube 4 and maintains the uniform distribution of ozone in the water during the flow process. Finally, it is discharged from the spiral tube 4 and used for patient shampooing and hydrotherapy sterilization.

[0042] In this embodiment, the ozone generator 3 is located below the water storage tank 2, and both its input and output ends are connected to the bottom wall of the water storage tank 2. This structural arrangement allows water in the water storage tank 2 to flow naturally into the ozone generator 3 under gravity, eliminating the need for additional conveying structures. This simplifies the water path and improves the stability of water entering the ozone generator 3. The water entering the ozone generator 3 undergoes electrolysis inside the device to generate ozone, which is then returned to the water storage tank 2 via the output end. This achieves cyclic ozonation treatment of the water in the water storage tank 2, maintaining a certain ozone content and providing a stable source for subsequent ozone water output.

[0043] In this embodiment, a liquid level sensor 23 is installed on the water storage tank 2. The liquid level sensor 23 is used to detect the liquid level in the water storage tank 2, thereby facilitating the acquisition of water volume information in the water storage tank 2. By sensing the water volume in the water storage tank 2 in real time, a basis can be provided for judging the operating status of the equipment and for water replenishment operations, thereby improving the reliability and safety of the device during use.

[0044] In this embodiment, a display panel 11 is provided on the surface of the housing 1, which is used to display the operating status of the device. Through the display panel 11, the user can intuitively understand the working status and water volume of the equipment, thereby facilitating the observation and management of the device.

[0045] In this embodiment, a control button 12 is provided on the side wall of the housing 1. The control button 12 is used to control the working status of the ozone hydrotherapy device. By providing the control button 12 on the outside of the housing 1, the user can complete the corresponding operation without opening the housing 1, improving the convenience of using the device and facilitating its application in actual nursing environments.

[0046] Example 2 like Figures 9 to 13 As shown, this embodiment differs from Embodiment 1 in that the structure of the manifold 5 and the mixing method of ozone and water have been improved. The manifold 5 in this embodiment includes an ozone connector 51, a water inlet connector 52, a manifold cavity 53, a discharge pipe 54, and a mixing assembly 55. The components cooperate with each other to achieve dynamic mixing of ozone and water.

[0047] The water inlet 52 is connected to the water pipe 6 to introduce water with adjusted flow rate into the manifold 5; the ozone inlet 51 is connected to the output pipe 21 to introduce ozone from the water storage tank 2 into the manifold 5. The ozone inlet 51 and the water inlet 52 are respectively connected to the manifold cavity 53, allowing ozone and water to initially mix within the manifold cavity 53. The discharge pipe 54 is located on the side wall of the manifold cavity 53 and connected to the gas-liquid separator 9 to transport the mixed ozone water to the subsequent treatment structure.

[0048] In this embodiment, the mixing component 55 is disposed within the manifold 53 to enhance the mixing effect between ozone and water. The mixing component 55 includes an ozone tube 551, a rotating component 552, a spiral blade 553, a connecting shaft 554, at least two exhaust arms 555, and a roller 556. A one-way valve 511 is disposed on the ozone connector 51. The one-way valve 511 is fixedly connected to and communicates with the ozone tube 551. The one-way valve 511 prevents water from flowing back into the ozone connector 51, improving the stability of the ozone delivery process. The manifold 53 is connected to the outer wall of the one-way valve 511, allowing ozone to stably enter the mixing component 55 via the ozone tube 551.

[0049] The rotating component 552 is fixedly connected to the exhaust support arm 555, and the rotating component 552 and the exhaust support arm 555 are integrally formed, creating a cavity structure inside. The exhaust support arm 555 is provided with an exhaust port 5551. One end of the ozone tube 551 extends into the rotating component 552, allowing ozone to enter the cavity formed by the rotating component 552 and the exhaust support arm 555, and be discharged through the exhaust port 5551. The rotating component 552 and the ozone tube 551 are rotatably connected, ensuring that the continuous ozone supply is not affected during the rotation of the rotating component 552.

[0050] The lower end of the rotating component 552 is fixedly connected to the connecting shaft 554, and the connecting shaft 554 is further fixedly connected to the spiral blade 553, so that the rotating component 552, the exhaust support arm 555, the connecting shaft 554, and the spiral blade 553 form a linkage structure. The spiral blade 553 is disposed in the confluence cavity 53 for direct contact with the water flow.

[0051] During operation, water enters the manifold 53 through the water pipe 6, and the kinetic energy of the water propels the spiral blades 553 to rotate. Simultaneously, the spiral blades 553 rotate, driving the rotating component 552 and the exhaust support arm 555 to rotate synchronously via the connecting shaft 554. As the rotating component 552 and the exhaust support arm 555 rotate, ozone is continuously discharged from the exhaust port 5551. Because the exhaust port 5551 is rotating, ozone is released into the water in a dynamically dispersed manner. At the same time, the water flows in a spiral direction under the guidance of the spiral blades 553, thus creating a relatively complex flow pattern within the manifold 53.

[0052] In this embodiment, a mechanical sealing ring is provided between the rotating component 552 and the ozone tube 551. The mechanical sealing ring ensures that the rotating component 552 maintains a good sealing state during rotation relative to the ozone tube 551, thereby effectively preventing ozone gas from overflowing from the connection gap during the mixing process. This ensures that ozone enters the rotating component 552 and the exhaust support arm 555 along a predetermined path, improving the safety and stability of the ozone delivery process.

[0053] The inner wall of the manifold 53 is provided with a bearing ring 531, and the inner wall of the bearing ring 531 has a connecting groove for providing rotational support for the mixing component 55. The roller 556 is rotatably connected to the exhaust support arm 555, and part of the roller 556 extends into the connecting groove. This allows the exhaust support arm 555 to achieve stable support through the rolling engagement between the roller 556 and the connecting groove as it rotates with the rotating component 552, thereby forming a reliable rotational connection between the rotating component 552 and the interior of the manifold 53. This structural design effectively reduces frictional resistance during rotation, ensuring smooth rotation of the rotating component 552 and the exhaust support arm 555 under water flow drive, and improving the operational reliability of the mixing component 55.

[0054] In this embodiment, the inner wall of the confluence cavity 53 is further provided with two annular grilles 532, which are staggered along the water flow direction. The connecting shaft 554 passes through the two annular grilles 532 and forms a rotatable connection with them, so that the connecting shaft 554 can obtain additional guidance and support during rotation, which helps to maintain the stability of the overall rotation of the helical blade 553, the connecting shaft 554, and the rotating component 552.

[0055] During operation, water flows through the helical blades 553, forming a rotating flow under their guidance, and continues to flow downstream. When the water flows through the annular grid 532, the grid disrupts and disturbs the continuity of the water flow, breaking its original direction and creating localized turbulence within the confluence cavity 53. This turbulence causes the water to develop more complex flow trajectories in different directions, thereby increasing the contact opportunities between the water and the ozone discharged from the vent 5551.

[0056] The rotational drive of the spiral blades 553, the dynamic exhaust of the exhaust arm 555, and the disturbance effect of the annular grille 532 on the water flow work together to enable ozone to fully contact the water in the confluence chamber 53 in a multi-directional and multi-layered manner, thereby further improving the ozone dissolution efficiency in the water, allowing the water to absorb ozone more fully, and improving the mixing effect and stability of the final output ozone water.

[0057] The specific embodiments described above do not constitute a limitation on the scope of protection of this invention. Those skilled in the art should understand that various modifications, combinations, sub-combinations, and substitutions can be made according to design requirements and other factors. Any modifications, equivalent substitutions, and improvements made within the spirit and principles of this invention should be included within the scope of protection of this invention.

Claims

1. An ozone hydrotherapy device, characterized in that, include: The machine casing (1), water storage tank (2), ozone generator (3), spiral tube (4), manifold (5) and water supply pipe (6); The water storage tank (2) is located inside the housing (1), and the ozone generator (3) is connected to the water storage tank (2) to convert the water in the water storage tank (2) into ozone. The water storage tank (2) is connected to the manifold (5) via an output pipe (21) for delivering ozone; The water pipe (6) is connected to the manifold (5) and is used to deliver pure water into the manifold (5); The manifold (5) is connected to the input end of the spiral pipe (4), and the output end of the spiral pipe (4) is connected to a drainage pipe (7).

2. The ozone hydrotherapy device according to claim 1, characterized in that, It also includes a water tank (8), which is disposed outside the housing (1); The water storage tank (2) is connected to the first water supply pipe (22); The upper end of the water tank (8) is provided with an openable cover (81), and the lower end of the water tank (8) is provided with a second water supply pipe (82), which is connected to the first water supply pipe (22).

3. The ozone hydrotherapy device according to claim 1, characterized in that, The water supply pipeline (6) includes a first water supply pipe (61), a flow regulating component (62), and a second water supply pipe (63); the two flow regulating components (62) are respectively connected to the first water supply pipe (61), the ends of the two flow regulating components (62) away from the first water supply pipe (61) are connected to the second water supply pipe (63), and the ends of the second water supply pipe (63) away from the flow regulating components (62) are connected to the manifold (5).

4. The ozone hydrotherapy device according to claim 3, characterized in that, The flow regulating component (62) includes a first diversion pipe (621), a second diversion pipe (622), and two solenoid valves (623); the lower ends of the first diversion pipe (621) and the second diversion pipe (622) are both connected to the first water pipe (61), and the upper ends of the first diversion pipe (621) and the second diversion pipe (622) are both connected to the second water pipe (63). The two solenoid valves (623) are disposed on the first diversion pipe (621) and the second diversion pipe (622).

5. The ozone hydrotherapy device according to claim 1, characterized in that, It also includes a gas-liquid separation device (9), the manifold (5) is a manifold tee connector, the gas-liquid separation device (9) is set between the manifold (5) and the spiral tube (4), so that the liquid entering the spiral tube (4) is separated into gas and liquid in the gas-liquid separation device (9), and the ozone gas that has not dissolved into the liquid is discharged.

6. The ozone hydrotherapy device according to claim 5, characterized in that, The gas-liquid separation device (9) is located at the axis of the spiral tube (4) and is coiled around the spiral tube (4). An ozone catalyst containment chamber (91) is provided on the gas-liquid separation device (9) and the ozone catalyst containment chamber (91) contains ozone catalyst. The output end of the gas-liquid separation device (9) is connected to the spiral tube (4), and the input end of the gas-liquid separation device (9) is connected to the manifold (5).

7. The ozone hydrotherapy device according to claim 1, characterized in that, The ozone generator (3) is located on the lower side of the water storage tank (2), and the input and output ends of the ozone generator (3) are both connected to the bottom wall of the water storage tank (2).

8. The ozone hydrotherapy device according to claim 1, characterized in that, A liquid level sensor (23) is installed on the water storage tank (2).

9. The ozone hydrotherapy device according to claim 1, characterized in that, The surface of the housing (1) is provided with a display panel (11).

10. The ozone hydrotherapy device according to claim 1, characterized in that, The side wall of the housing (1) is provided with control buttons (12).

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