Hydrogen compress physical therapy using method

Abstract

The invention provides a hydrogen compress physical therapy using method, and belongs to the technical field of hydrogen therapy, and the method comprises the steps: S1, preparing a patch with waterproof and breathable functions, and enabling the patch to be internally provided with a water conveying pipeline; the patch is applied to an affected part; s2, hydrogen and hot water are alternately input into the water conveying pipeline, and a hydrogen section and a hot water section which are sequentially arranged at intervals are formed in the water conveying pipeline; the diffusion speed of the hydrogen in the hydrogen section is reduced by means of flowing of the hot water section, so that the hydrogen is slowly released to the affected part. According to the hydrogen compress physical therapy using method, good combination of dynamic flowing and continuous controllable release of the hydrogen section is achieved, and hydrogen is continuously and alternately input through the water conveying pipeline; the action time of the hydrogen on the affected part is remarkably prolonged by means of interval blocking of the hot water section, the temperature of the affected part is increased through the hot water section, the permeation effect of the hydrogen on the affected part is enhanced, and the treatment effect is improved.

Description

Technical Field

[0001] The present invention belongs to the technical field of hydrogen therapy, and more specifically, relates to a method for using hydrogen compress therapy. Background Art

[0002] Due to its strong permeability and antioxidant properties, hydrogen molecules have been shown to possess anti-inflammatory and anti-aging benefits, leading to widespread use of hydrogen therapy in healthcare. Transdermal drug delivery technology has advanced rapidly in recent years, and currently available products are mostly simple hydrogen-containing gel patches. These patches are applied to the affected area, allowing the hydrogen within to come into contact with the affected area and produce a therapeutic effect. However, these hydrogen-containing patches contain relatively small amounts of hydrogen, which is insufficient for therapeutic purposes. Furthermore, due to their low density, hydrogen quickly dissipates, leaving only a minimal amount of hydrogen reaching the affected area, resulting in poor therapeutic efficacy. Summary of the Invention

[0003] The purpose of the present invention is to provide a method for using hydrogen compress therapy to solve the technical problem in the prior art that the amount of hydrogen in the hydrogen-containing patch is small and the hydrogen density is low, and only a very small amount of hydrogen will act on the affected area, resulting in poor treatment effect.

[0004] To achieve the above-mentioned purpose, the technical solution adopted by the present invention is to provide a method for using hydrogen compress therapy, comprising:

[0005] S1: preparing a waterproof and breathable patch with a water supply channel inside; the patch is applied to the affected area;

[0006] S2: Alternately inputting hydrogen and hot water into the water pipeline to form hydrogen sections and hot water sections arranged in sequence in the water pipeline; utilizing the flow of the hot water section to reduce the diffusion rate of hydrogen in the hydrogen section, so that hydrogen is slowly released to the affected area.

[0007] In one possible implementation, in step S2, a hydrogen inhaler, a hot water system, a feed pipe, and a return pipe are arranged. The hydrogen inhaler is used to generate and output hydrogen, and the hot water system is used to generate and output hot water. One end of the feed pipe is connected to the hydrogen inhaler and the hot water system, and the other end is connected to one end of the water pipeline. The return pipe is connected to the other end of the water pipeline. The hydrogen inhaler and the hot water system are started and controlled to alternately input hydrogen and hot water into the water pipeline.

[0008] In one possible implementation, the feed pipe includes a main connecting pipe and two branch connecting pipes, one end of the two branch connecting pipes is connected to one end of the main connecting pipe, the other end of the main connecting pipe is connected to one end of the water supply pipe, and the other ends of the two branch connecting pipes are respectively connected to the hydrogen absorption machine and the hot water system.

[0009] In one possible implementation, a reversing valve is installed on the feed pipe, and the main connecting pipe and the two branch connecting pipes are connected to the reversing valve. The reversing valve is operated to make the two branch connecting pipes alternately connected to the main connecting pipe, and the hydrogen and hot water in the two branch connecting pipes alternately enter the main connecting pipe.

[0010] In one possible implementation, an inlet and an outlet are opened on the patch in step S1, and the two ends of the water pipe are respectively passed through the inlet and the outlet; in step S2, hydrogen and hot water are continuously input into the end of the water pipe in the inlet, and the hot water section is discharged from the end of the water pipe in the outlet.

[0011] In a possible implementation, in step S1, the water pipeline is arranged in a spiral shape to increase the uniformity of the hydrogen section in the water pipeline within the patch; multiple water pipelines are provided and arranged side by side at intervals.

[0012] In one possible implementation, in step S1, the patch is provided to include a base membrane layer and a permeation layer, the base membrane layer is docked with the edge of the permeation layer and is sealed, a receiving cavity is formed between the base membrane layer and the permeation layer, the water supply pipe is installed in the receiving cavity, the water supply pipe is made of a waterproof and breathable material, the permeation layer is used to be applied to the affected area and permeate hydrogen toward the affected area, the pipe inlet and the pipe outlet are both opened on the base membrane layer or the permeation layer, and are both connected to the receiving cavity.

[0013] In a possible implementation, the base membrane layer is an aluminum membrane, and the permeation layer and the water pipe are made of polytetrafluoroethylene material.

[0014] In a possible implementation, in step S1 , a sealing ring layer arranged in an annular shape is provided on the patch, and the patch is applied to the affected area, and the affected area is located within the sealing ring layer.

[0015] In a possible implementation, the patch is provided with a breathing hole extending therethrough.

[0016] The beneficial effect of the hydrogen compress therapy method provided by the present invention is that: compared with the existing technology, the hydrogen compress therapy method of the present invention first prepares a patch with waterproof and breathable functions. A sealed water pipeline is preset inside the patch. The waterproof property ensures that hydrogen can effectively penetrate into the skin of the affected area. The water pipeline serves as a transmission channel for hydrogen and hot water, providing a structural basis for subsequent alternating transmission of the medium. When in use, the patch is tightly applied to the affected area to be treated to ensure full contact with the affected area; then, hydrogen and hot water are alternately input into the water pipeline through the pipeline system, so that hydrogen sections and hot water sections spaced apart in sequence are formed in the pipeline. The physical barrier effect generated by the flow of hot water is used to reduce the diffusion rate of hydrogen molecules, delay the rate of hydrogen molecules escaping from the patch, and achieve continuous sustained release of hydrogen in the affected area. In this way, a good combination of dynamic flow and continuous controllable release of the hydrogen segment is achieved, breaking through the limitation of the limited hydrogen storage capacity of traditional patches. Hydrogen is continuously and alternately input through the water pipeline, and the total amount of hydrogen can be flexibly adjusted according to treatment needs to meet the treatment dosage requirements of different affected areas; at the same time, with the help of the interval barrier of the hot water segment, the action time of hydrogen in the affected area is significantly extended, so that more hydrogen can fully contact the affected tissue and exert anti-inflammatory and anti-aging effects; the hot water segment also increases the temperature of the affected area, thereby enhancing the penetration of hydrogen in the affected area, further improving the treatment effect; and the waterproof and breathable patch structure allows hydrogen to pass through the patch smoothly and act on the affected area, while hot water will not flow out of the patch, avoiding affecting the treatment effect of the affected area. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] In order to more clearly illustrate the technical solutions in the embodiments of the present invention, the following briefly introduces the drawings required for use in the embodiments or the description of the prior art. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying any creative work.

[0018] Figure 1 A diagram showing the principle of use of the hydrogen compress therapy method provided in an embodiment of the present invention;

[0019] Figure 2 A schematic diagram of the structure of the hydrogen section and hot water section in a water pipeline provided by an embodiment of the present invention;

[0020] Figure 3 A front view of a hydrogen patch provided in an embodiment of the present invention;

[0021] Figure 4 A side view of a hydrogen patch provided in an embodiment of the present invention;

[0022] Figure 5 for Figure 4 Enlarged view of point A in the middle;

[0023] Figure 6 A schematic diagram of the internal structure of a hydrogen patch provided in an embodiment of the present invention;

[0024] Figure 7 A cross-sectional view of a hydrogen patch provided by an embodiment of the present invention;

[0025] Figure 8 A schematic diagram of the connection between the base membrane layer, water delivery pipeline and connecting pipe section provided in an embodiment of the present invention.

[0026] Among them, the reference numerals in the figures are:

[0027] 10. Base membrane layer; 11. Pipe inlet; 12. Pipe outlet; 13. Breathing hole; 20. Permeation layer; 21. Accommodating cavity; 22. Sealing ring layer; 30. Water pipeline; 31. Connecting pipe section; 32. Sealing layer; 33. Hydrogen section; 34. Hot water section; 40. Hydrogen absorption machine; 41. Hot water system; 42. Feed pipe; 43. Main connecting pipe; 44. Branch connecting pipe; 45. Return pipe; 46. Reversing valve. DETAILED DESCRIPTION

[0028] In order to make the technical problems, technical solutions and beneficial effects to be solved by the present invention more clearly understood, the present invention is further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are only used to explain the present invention and are not intended to limit the present invention.

[0029] It should be noted that when an element is referred to as being “fixed on” or “disposed on” another element, it may be directly on the other element or indirectly on the other element. When an element is referred to as being “connected to” another element, it may be directly connected to the other element or indirectly connected to the other element.

[0030] It should be understood that the terms "length", "width", "up", "down", "front", "back", "left", "right", "vertical", "horizontal", "top", "bottom", "inside", "outside", etc., indicating the orientation or position relationship, are based on the orientation or position relationship shown in the accompanying drawings, and are only for the convenience of describing the present invention and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, be constructed and operate in a specific orientation, and therefore cannot be understood as limiting the present invention.

[0031] Furthermore, the terms "first" and "second" are used for descriptive purposes only and should not be construed as indicating or implying relative importance or implicitly specifying the number of the technical features being referred to. Thus, a feature identified as "first" or "second" may explicitly or implicitly include one or more of the features. In the description of the present invention, "plurality" means two or more, unless otherwise specifically defined.

[0032] See also Figure 1 The present invention now provides a method for hydrogen compress therapy. The method comprises: S1: preparing a waterproof and breathable patch having a water conduit 30 therein; applying the patch to an affected area; S2: alternately injecting hydrogen and hot water into the water conduit 30 to form a hydrogen section 33 and a hot water section 34 spaced apart in sequence within the water conduit 30; utilizing the flow of hot water section 34 to reduce the diffusion rate of hydrogen within hydrogen section 33, thereby slowly releasing hydrogen to the affected area.

[0033] Compared with the prior art, the hydrogen therapy method provided by the present invention first prepares a patch with waterproof and breathable functions. A sealed water pipeline 30 is preset inside the patch. The waterproof property ensures that hydrogen can effectively penetrate the skin of the affected area. The water pipeline 30 serves as a transmission channel for hydrogen and hot water, providing a structural basis for the subsequent alternating transmission of the medium. When used, the patch is tightly applied to the affected area to ensure full contact with the affected area; then, hydrogen and hot water are alternately input into the water pipeline 30 through the pipeline system, so that hydrogen sections 33 and hot water sections 34 are formed in the pipeline at intervals. The physical barrier effect created by the flow of hot water is used to reduce the diffusion rate of hydrogen molecules, delay the rate of hydrogen molecules escaping from the patch, and achieve continuous sustained release of hydrogen in the affected area. In this way, a good combination of dynamic flow and continuous controllable release of the hydrogen section 33 is achieved, breaking through the limitation of the limited hydrogen storage capacity of traditional patches. Hydrogen is continuously and alternately input through the water supply pipe 30, and the total amount of hydrogen can be flexibly adjusted according to treatment needs to meet the treatment dosage requirements of different affected areas; at the same time, with the help of the interval barrier of the hot water section 34, the action time of hydrogen in the affected area is significantly extended, so that more hydrogen can fully contact the affected tissue and exert anti-inflammatory and anti-aging effects; the hot water section 34 also increases the temperature of the affected area, thereby enhancing the penetration of hydrogen in the affected area, further improving the treatment effect; and the waterproof and breathable patch structure allows hydrogen to pass through the patch smoothly and act on the affected area, while hot water will not flow out of the patch, avoiding affecting the treatment effect of the affected area.

[0034] See also Figure 1As a specific embodiment of the hydrogen compress therapy method provided by the present invention, in step S2, a hydrogen inhaler 40, a hot water system 41, a feed pipe 42, and a return pipe 45 are arranged. The hydrogen inhaler 40 is used to generate and output hydrogen, and the hot water system 41 is used to generate and output hot water. One end of the feed pipe 42 is connected to the hydrogen inhaler 40 and the hot water system 41, and the other end is connected to one end of the water pipeline 30. The return pipe 45 is connected to the other end of the water pipeline 30. The hydrogen inhaler 40 and the hot water system 41 are started and controlled to alternately input hydrogen and hot water into the water pipeline 30. By constructing a complete medium delivery system, efficient utilization and precise slow release of hydrogen are achieved. In step S2, a hydrogen absorption machine 40, a hot water system 41, a feed pipe 42 and a return pipe 45 need to be arranged to form a closed-loop system - the hydrogen absorption machine 40 serves as a hydrogen generating device, which can stably output sufficient high-purity hydrogen to solve the problem of insufficient hydrogen storage in traditional patches; the hot water system 41 provides temperature-controllable hot water, and the hot water it outputs can not only form a physical barrier, but also promote the skin's absorption of hydrogen through the thermal effect; the feed pipe 42 serves as the main channel for medium transmission, one end of which is connected through the hydrogen absorption machine 40 and the hot water system 41 to realize the alternating input of hydrogen and hot water, and the other end is directly connected to the water pipe 30 in the patch to ensure accurate introduction of the medium; the return pipe 45 is connected to the other end of the water pipe 30 to form a circulation loop, so that the medium flowing through the patch can flow back to the processing device, avoiding waste and facilitating the monitoring of the medium status. During operation, hydrogen and hot water are first alternately delivered to the water delivery pipe 30 via the feed pipe 42. The timing of the input of the two media is controlled by a switching valve, etc., so that hydrogen sections 33 and hot water sections 34 are formed in the pipe in alternating arrangements. For example, after every 5 seconds of hydrogen input, the hot water input is switched to 3 seconds, and the cycle repeats. During the flow process, the hot water section 34 compresses the diffusion space of the hydrogen section 33, using the viscous resistance of the liquid to reduce the escape speed of hydrogen molecules. At the same time, the circulation effect of the return pipe 45 maintains a stable pressure in the pipe, ensuring that the hydrogen section 33 continuously acts on the affected area. In this way, with the help of the hydrogen inhaler 40 to continuously supply hydrogen, the hydrogen amount limit of the traditional gel patch is completely broken through. The hydrogen output can be adjusted according to the treatment needs to meet the dosage requirements of different affected areas; and the interval structure formed by the alternation of hot water and hydrogen can greatly delay the diffusion of hydrogen - the flow state of the hot water section 34 reduces the free diffusion path of hydrogen molecules, and its temperature field can also reduce the escape kinetic energy of hydrogen, so that hydrogen can be continuously released in the affected area for a long time; at the same time, the closed-loop circulation system reduces the medium loss, and the return pipe 45 can monitor the hydrogen concentration and water temperature in real time, which is convenient for precise control of treatment parameters; the coordination of the feed pipe 42 and the return pipe 45 stabilizes the pressure in the patch, and combined with the characteristics of the waterproof and breathable patch, it ensures that hydrogen penetrates the skin efficiently and avoids the safety hazards caused by hot water leakage.

[0035] See also Figure 1As a specific embodiment of the hydrogen compress therapy method provided by the present invention, a feed pipe 42 is provided, comprising a main connecting pipe 43 and two branch connecting pipes 44. One end of the two branch connecting pipes 44 is connected to one end of the main connecting pipe 43, and the other end of the main connecting pipe 43 is connected to one end of the water supply pipe 30. The other ends of the two branch connecting pipes 44 are respectively connected to the hydrogen inhaler 40 and the hot water system 41. The feed pipe 42 adopts a combined structure of the main connecting pipe 43 and the two branch connecting pipes 44. The two branch connecting pipes 44 respectively assume the independent transmission functions of hydrogen and hot water. The end of one branch connecting pipe 44 is connected to the hydrogen inhaler 40, specifically responsible for transmitting hydrogen, and the end of the other branch connecting pipe 44 is connected to the hot water system 41, specifically for transmitting hot water. The other ends of the two branch connecting pipes 44 are jointly and sealedly connected to one end of the main connecting pipe 43. The other end of the main connecting pipe 43 is connected to the water supply pipe 30 in the patch, forming a "dual-source single-output" medium transmission path. When hydrogen is needed, the valve on the branch connecting pipe 44 connected to the hydrogen inhaler 40 is opened, while the valve on the branch connecting pipe 44 connected to the hot water system 41 is closed. This allows the hydrogen produced by the hydrogen inhaler 40 to enter the main connecting pipe 43 through the corresponding branch connecting pipe 44 and then be introduced into the water pipeline 30. When switching to hot water, the valve on the hydrogen side is closed and the valve on the hot water side is opened. The hot water output from the hot water system 41 enters the main connecting pipe 43 through another branch connecting pipe 44 and then flows into the water pipeline 30. Through the periodic switching of the valves, the main connecting pipe 43 alternately transports the two media to the water pipeline 30, ultimately forming hydrogen sections 33 and hot water sections 34 arranged alternately within the water pipeline 30. This method achieves isolated transmission of hydrogen and hot water, preventing the two media from mixing before entering the main connecting pipe 43. If a single pipe is used to directly connect the two sources, the hydrogen and hot water can easily mix due to switching delays, reducing the hydrogen purity and affecting the temperature stability of the hot water.

[0036] See also Figure 1As a specific embodiment of the method for using hydrogen compress therapy provided by the present invention, a reversing valve 46 is installed on the feed pipe 42. The main connecting pipe 43 and the two branch connecting pipes 44 are all connected to the reversing valve 46. The reversing valve 46 is controlled to make the two branch connecting pipes 44 alternately connected to the main connecting pipe 43, and the hydrogen and hot water in the two branch connecting pipes 44 alternately enter the main connecting pipe 43. The reversing valve 46 is added to the feed pipe 42 to optimize the medium switching mechanism. The reversing valve 46 serves as the core control component, forming a sealed connection with the main connecting pipe 43 and the two branch connecting pipes 44 respectively - one of the branch connecting pipes 44 is connected to the hydrogen inhaler 40, and the other is connected to the hot water system 41. The main connecting pipe 43 is connected to the water supply pipe 30 in the patch. By electromagnetically controlling the valve core switching of the reversing valve 46, the alternating connection between the two branch connecting pipes 44 and the main connecting pipe 43 can be achieved. During operation, when the reversing valve 46 switches to the branch connecting pipe 44 on the hydrogen inhaler 40 side, the hydrogen generated by the hydrogen inhaler 40 enters the reversing valve 46 through the branch connecting pipe 44 and is then input into the water pipeline 30 through the main connecting pipe 43. After a preset time (e.g., 20 seconds), the reversing valve 46 is manipulated to switch to the branch connecting pipe 44 on the hot water system 41 side, and hot water enters the water pipeline 30 through the corresponding branch connecting pipe 44, the reversing valve 46, and the main connecting pipe 43. This cycle causes the two media to alternately flow into the main connecting pipe 43, ultimately forming regularly spaced hydrogen sections 33 and hot water sections 34 within the water pipeline 30. The reversing valve 46 achieves instantaneous and tight media switching. The valve core structure of the reversing valve 46 completes the channel switching in a very short time without media leakage during the switching process, thus avoiding the mixing of hydrogen and hot water caused by delays in traditional manual switching. This structure improves the purity of the hydrogen in the hydrogen section 33 and limits the temperature fluctuation of the hot water section 34 to no more than ±0.5°C. It also enhances control accuracy. By setting the switching frequency of the reversing valve 46, the length ratio of the hydrogen section 33 to the hot water section 34 can be precisely adjusted, ensuring a uniform and stable barrier effect between the hot water section 34 and the hydrogen section 33. This structure also simplifies the operating process. Compared to independently controlling the valves of the two branch connecting pipes 44, operating the single reversing valve 46 reduces the number of operating steps by 50%, facilitates integration with automated control systems, and reduces human error.

[0037] See also Figures 1 to 8As a specific embodiment of the method for using hydrogen compress therapy provided by the present invention, an inlet 11 and an outlet 12 are provided on the patch in step S1, and the two ends of the water pipe 30 are respectively passed through the inlet 11 and the outlet 12; in step S2, hydrogen and hot water are continuously input into the end of the water pipe 30 in the inlet 11, and the hot water section 34 is discharged from the end of the water pipe 30 in the outlet 12. The treatment efficiency is improved by optimizing the patch structure and the medium flow path. When preparing the waterproof and breathable patch in step S1, independent inlet 11 and outlet 12 are provided at the edge of the patch, and the two ends of the internal water pipe 30 are respectively passed through the two pipe ports and sealed and fixed - the inlet 11 serves as the medium input channel, and the outlet 12 serves as the medium discharge channel. The sealing process can prevent hydrogen from leaking from the gap in the pipe ports and hot water from seeping out, ensuring the sealing of the area where the patch contacts the skin. In step S2, the end of the water pipe 30 at the pipe inlet 11 is connected to the feed pipe 42 (the feed pipe 42 is still alternately connected to the hydrogen inhaler 40 and the hot water system 41 through the reversing valve 46), and the end of the water pipe 30 at the pipe outlet 12 is directly connected to the outside world, forming an "input-output" unidirectional flow path; after starting the system, the hydrogen inhaler 40 and the hot water system 41 continuously and alternately deliver hydrogen and hot water to the pipe inlet 11 through the feed pipe 42, so that a hydrogen section 33 and a hot water section 34 are formed in the water pipe 30, which are successively advanced. As new medium is continuously input, the medium in the pipe continues to move toward the pipe outlet 12, and finally the hot water section 34 (containing a small amount of incompletely released hydrogen) is discharged from the pipe outlet 12, while the hydrogen section 33 slowly releases hydrogen to the affected area during the movement. In this way, the unidirectional flow path simplifies the system structure, eliminates the return pipe 45, reduces the number of pipe interfaces, reduces the risk of leakage and maintenance costs, and avoids the medium siltation and blockage problems that may occur in the return pipe 45. The independent placement of the inlet and outlet ports 11 and 12 ensures a linear distribution of the water pipeline 30 within the patch, avoiding uneven flow resistance caused by circuitous piping. This ensures a consistent length between the hydrogen section 33 and the hot water section 34, resulting in more uniform hydrogen release. Connecting pipe sections 31, passing through the inlet and outlet ports 11 and 12, respectively, are located at both ends of the water pipeline 30, facilitating connection with the feed pipe 42. A sealing layer 32 is also provided on the outer surface of the connecting pipe section 31 to prevent hydrogen leakage.

[0038] See also Figure 1 and Figure 6As a specific embodiment of the method for using hydrogen compress therapy provided by the present invention, in step S1, the water pipeline 30 is arranged in a spiral shape to increase the uniformity of the hydrogen section 33 in the water pipeline 30 in the patch; multiple water pipelines 30 are set and arranged side by side at intervals. By optimizing the spatial layout of the water pipeline 30, the uniformity and coverage of the hydrogen effect are improved. When preparing the patch in step S1, the water pipeline 30 adopts a multiple optimization structure. First, the water pipeline 30 is laid in a spiral shape in the patch, so that the total length of the water pipeline 30 increases by 2-3 times compared with the straight arrangement; secondly, multiple water pipelines 30 are set, and a parallel spacing of 1-2 cm is maintained between each pipeline. They are fixed side by side in the waterproof and breathable base layer of the patch. The two ends of the water pipeline 30 are respectively connected to the pipe inlet 11 and the pipe outlet 12 to ensure that each water pipeline 30 independently transports the medium and is evenly arranged. During operation, the density of the spirals and the number of tubes must be calculated based on the patch size. Medical-grade silicone tubing is used as the material for the water delivery tubes 30. The edges of the tubes are fixed to the inner layer of the patch with hot melt adhesive to prevent tube displacement due to medium flow during use. After fixing, the tubes are inspected for patency, ensuring that there are no wrinkles or blockages in the spirals and that the spacing between the parallel tubes is consistent. This structure extends the action path of the hydrogen section 33 within the patch, allowing hydrogen more time to release to the surrounding skin. Combined with the barrier effect of the hot water section 34, the skin is exposed to hydrogen for a longer period of time. The parallel spacing of the multiple tubes significantly expands the effective area. The combination of spirals and multiple tubes achieves uniform hydrogen distribution. The spiral path ensures that the tubes cover all corners within the patch. The controlled spacing ensures that the hydrogen release areas of adjacent tubes are seamlessly connected, reducing the flow rate of the medium within each tube, ensuring smoother flow between the hydrogen section 33 and the hot water section 34, and avoiding interval disturbances caused by excessive flow. This ensures that each hot water section 34 accurately blocks the corresponding hydrogen section 33.

[0039] See also Figures 2 to 7As a specific embodiment of the method for using hydrogen compress therapy provided by the present invention, in step S1, a patch is provided including a base membrane layer 10 and a permeation layer 20. The edges of the base membrane layer 10 and the permeation layer 20 are butted and sealed together. A receiving cavity 21 is formed between the base membrane layer 10 and the permeation layer 20. A water supply pipe 30 is installed in the receiving cavity 21. The water supply pipe 30 is made of a waterproof and breathable material. The permeation layer 20 is used to be applied to the affected area and to permeate hydrogen toward the affected area. The pipe inlet 11 and the pipe outlet 12 are both provided on the base membrane layer 10 or the permeation layer 20 and are both connected to the receiving cavity 21. A combined structure of the base membrane layer 10 and the permeation layer 20 is used. The base membrane layer 10 is made of a high-strength medical waterproof film to provide support and protection. The permeation layer 20 is made of a skin-friendly, breathable material and is used for direct application to the affected area. The edges of the two are butted together using hot-melt sealing technology to form a sealed receiving cavity 21, ensuring that the environment within the cavity is not disturbed by the outside world. The water supply pipe 30 is installed within the housing cavity 21. The microporous structure of the water supply pipe 30 and the permeable membrane allows hydrogen molecules to pass through while preventing liquid hot water from leaking out. The inlet 11 and outlet 12 are located at the edges of the basement membrane layer 10 or the permeable layer 20 and communicate with the housing cavity 21, serving as channels for the input and output of the medium. During operation, the sealing integrity of the basement membrane layer 10 and the permeable layer 20 must be checked first. The water supply pipe 30 is then fixed within the housing cavity 21 along a predetermined path (e.g., a spiral shape) to ensure that there is no rigid compression between the pipe and the two membrane layers. Before use, the permeable layer 20 is placed against the affected skin. Hydrogen and hot water are alternately introduced into the water supply pipe 30 through the inlet 11. Hydrogen enters the housing cavity 21 through the pipe's breathable micropores and then penetrates the skin through the pores of the permeable layer 20. The hot water, however, is confined within the pipe due to its waterproof nature and is discharged through the outlet 12. With this structure, the containment chamber 21 acts as a hydrogen buffer, preventing rapid loss of hydrogen after it escapes directly from the pipe. This creates a micro-pressure environment within the chamber, promoting uniform diffusion of hydrogen into the permeation layer 20. Furthermore, the waterproof, breathable pipe achieves a "hydrogen permeability barrier" function, ensuring that an effective dose reaches the affected area while keeping hot water completely confined within the pipe. The functional division of the basement membrane layer 10 and the permeation layer 20 enhances comfort. The basement membrane layer 10 blocks the intrusion of dust and moisture from the outside world. The sealed environment of the containment chamber 21 ensures uniform distribution of hydrogen within the chamber, complementing the spiral or multi-pipeline layout of the water delivery pipe 30.

[0040] Preferably, the permeable layer 20 and the water pipe 30 are formed using an integrated molding process. The water pipe 30 protrudes outward from the permeable layer 20 toward the base membrane layer 10, achieving a deep fusion of the two in terms of material and structure. The water pipe 30 directly exists as an extension structure of the permeable layer 20, without the need for additional assembly, and naturally forms a spiral gas channel within the accommodating cavity 21. On the one hand, the integrated molding process eliminates the connection gap between the permeable layer 20 and the water pipe 30 in traditional assembly, eliminating the risk of hydrogen leakage from the structural source, and cooperating with the sealing design of the base membrane layer 10 to greatly improve the airtightness of the accommodating cavity 21; on the other hand, the protruding structure of the water pipe 30 forms a three-dimensional diversion space within the accommodating cavity 21, which not only ensures the orderly flow of hydrogen in the pipe, but also optimizes the diffusion efficiency of hydrogen from the pipe to the permeable layer 20 through material consistency with the permeable layer 20, allowing hydrogen to act more directly and stably on the affected area. The side of the water pipe 30 away from the permeable layer 20 is connected to the base membrane layer 10. That is, the side of the pipe facing the base membrane layer 10 is connected to the base membrane layer 10 by abutting, bonding, etc.

[0041] As a specific embodiment of the method for using hydrogen compress therapy provided by the present invention, the base membrane layer 10 is an aluminum membrane, and the permeation layer 20 and the water supply pipe 30 are made of polytetrafluoroethylene material. The base film layer 10 is made of aluminum film, which uses its high-density metal properties to achieve super-strong barrier properties. After being sealed at the edge of the permeation layer 20 made of polytetrafluoroethylene (PTFE), a highly airtight containment cavity 21 can be formed. The aluminum film can effectively prevent hydrogen from escaping to the outside of the patch, while isolating it from external dust and moisture, creating a stable environment for the slow release of hydrogen in the containment cavity 21. The permeation layer 20 is made of PTFE material, whose microporous structure is both skin-friendly and breathable, ensuring that hydrogen can efficiently penetrate the skin while reducing sweat accumulation on the skin through its hydrophobicity. The water supply pipe 30 is also made of PTFE, taking advantage of its high and low temperature resistance and strong chemical stability. No harmful substances are precipitated when transporting hot water (38-42°C) and hydrogen. The waterproof and breathable properties of the pipe wall ensure that the hot water is completely confined in the pipe, while the hydrogen penetrates the pipe wall into the containment cavity 21 and then acts on the affected area through the permeation layer 20.

[0042] See also Figure 2As a specific embodiment of the method for using hydrogen compress therapy provided by the present invention, in step S1, a sealing ring layer 22 arranged in an annular shape is provided on the patch, and the patch is applied to the affected part and the affected part is located in the sealing ring layer 22. The sealing performance between the patch and the skin is enhanced by adding the sealing ring layer 22. When preparing the patch in step S1, a ring-shaped sealing ring layer 22 is provided at the edge of the permeable layer 20, and the sealing ring layer 22 is made of medical-grade silicone. It is fixed to the edge of the permeable layer 20 through a hot melt process to ensure that the affected part is completely surrounded. During operation, before applying the patch to the affected part, it is necessary to first clean the oil and sweat on the surface of the skin, and then align the sealing ring layer 22 with the edge of the affected part so that the affected part is completely in the sealing ring layer 22, and lightly press the sealing ring to make it fit tightly with the skin; the elasticity of the silicone can adapt to the curvature of the skin to ensure that there is no gap in the annular contact surface. This method is used to form a closed space. The sealing ring layer 22 prevents hydrogen from escaping from the edge of the patch, thereby increasing the hydrogen concentration in the accommodating cavity 21; at the same time, it also isolates external interference. The annular seal can prevent sweat and dust from entering between the affected area and the patch, avoiding contamination of the treatment environment, and reducing patch displacement caused by skin friction.

[0043] See also Figure 1 and Figure 3 As a specific embodiment of the hydrogen compress therapy method provided by the present invention, the patch is provided with a through-hole 13. This patch structure optimizes the design of the through-hole 13 for treating affected facial areas. The through-holes 13 are symmetrically distributed on either side of the patch's midline, corresponding to the position of the human nasal cavity. The edges of the holes are reinforced with medical silicone to ensure precise alignment of the holes 13 with the nostrils during application. During application, the patch is applied to the affected area of ​​the face, adjusted so that the holes 13 completely cover the nostrils, and gently pressed against the edges of the silicone to ensure a secure fit. This prevents obstruction of the respiratory tract while also ensuring that the sealing ring 22 surrounds the affected area around the nose.

[0044] The above are only preferred embodiments of the present invention and are not intended to limit the present invention. Any modifications, equivalent substitutions and improvements made within the spirit and principles of the present invention should be included in the scope of protection of the present invention.

Claims

1. A method for using hydrogen compress therapy, characterized in that: include: S1: preparing a waterproof and breathable patch with a water supply channel inside; the patch is applied to the affected area; S2: Alternately inputting hydrogen and hot water into the water pipeline to form hydrogen sections and hot water sections arranged in sequence in the water pipeline; utilizing the flow of the hot water section to reduce the diffusion rate of hydrogen in the hydrogen section, so that hydrogen is slowly released to the affected area.

2. The method for using hydrogen compress therapy according to claim 1, characterized in that: In step S2, a hydrogen inhaler, a hot water system, a feed pipe and a return pipe are arranged. The hydrogen inhaler is used to generate and output hydrogen, and the hot water system is used to generate and output hot water. One end of the feed pipe is connected to the hydrogen inhaler and the hot water system, and the other end is connected to one end of the water pipeline. The return pipe is connected to the other end of the water pipeline. The hydrogen inhaler and the hot water system are started and controlled to alternately input hydrogen and hot water into the water pipeline.

3. The method for using hydrogen compress therapy as claimed in claim 2, characterized in that: The feed pipe is provided to include a main connecting pipe and two branch connecting pipes, one end of the two branch connecting pipes is connected to one end of the main connecting pipe, the other end of the main connecting pipe is connected to one end of the water supply pipe, and the other ends of the two branch connecting pipes are respectively connected to the hydrogen absorption machine and the hot water system.

4. The method for using hydrogen compress therapy as claimed in claim 3, characterized in that: A reversing valve is installed on the feed pipe, and the main connecting pipe and the two branch connecting pipes are connected to the reversing valve. The reversing valve is operated to make the two branch connecting pipes alternately connected to the main connecting pipe, and the hydrogen and hot water in the two branch connecting pipes alternately enter the main connecting pipe.

5. The method for using hydrogen compress therapy as claimed in claim 1, characterized in that: In step S1, an inlet and an outlet are opened on the patch, and the two ends of the water pipeline are respectively passed through the inlet and the outlet; in step S2, hydrogen and hot water are continuously input into the end of the water pipeline in the inlet, and the hot water section is discharged from the end of the water pipeline in the outlet.

6. The method for using hydrogen compress therapy as claimed in claim 5, characterized in that: In step S1, the water pipeline is arranged in a spiral shape to increase the uniformity of the hydrogen section in the water pipeline within the patch; multiple water pipelines are provided and arranged side by side at intervals.

7. The method for using hydrogen compress therapy as claimed in claim 5, characterized in that: In step S1, the patch is provided to include a base membrane layer and a permeation layer, the base membrane layer is butted against the edge of the permeation layer and is sealed, a receiving cavity is formed between the base membrane layer and the permeation layer, the water pipeline is installed in the receiving cavity, the water pipeline is made of a waterproof and breathable material, the permeation layer is used to be applied to the affected area and to permeate hydrogen toward the affected area, the pipe inlet and the pipe outlet are both opened on the base membrane layer or the permeation layer, and are both connected to the receiving cavity.

8. The method for using hydrogen compress therapy as claimed in claim 7, characterized in that: The base membrane layer is an aluminum membrane, and the permeation layer and the water pipeline are made of polytetrafluoroethylene material.

9. The method for using hydrogen compress therapy as claimed in claim 1, characterized in that: In step S1, a sealing ring layer arranged in an annular shape is provided on the patch, and the patch is applied to the affected area, and the affected area is located within the sealing ring layer.

10. The method for using hydrogen compress therapy as claimed in claim 9, characterized in that: The patch is provided with a breathing hole that is penetrated therethrough.

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