Continuous and efficient oxyhydrogen inhalation therapeutic apparatus

Abstract

The invention discloses a continuous and efficient oxyhydrogen inhalation therapeutic apparatus which comprises a shell. An oxyhydrogen manufacturing mechanism is arranged in an inner cavity of the shell, and a protection mechanism for shielding an oxyhydrogen exhaust end is arranged at the top of the shell. The protective mechanism composed of the connecting assembly, the blocking assembly and the elastic assembly is arranged at the top of the shell, the connecting hole can be tightly blocked by the protective sleeve when the device is not used, and dust and foreign matter are effectively prevented from invading the oxyhydrogen gas discharging end; the protection mechanism adopts a protection sleeve made of medical-grade liquid silica gel, and is matched with an elastic supporting structure driven by a second spring, so that damage caused by accidental touch is avoided, and the exhaust end can be prevented from being polluted to influence the purity of treatment gas; during use, the plugging assembly can be driven to move only by stretching and rotating, self-adaptive adjustment of the elastic assembly does not hinder gas output, the protection effect is guaranteed, use convenience is not affected, the service life of a core exhaust component of equipment is effectively prolonged, and use safety and durability are greatly improved.

Description

Technical Field

[0001] This invention relates to the field of hydrogen-oxygen inhalation therapy equipment technology, specifically to a continuous and efficient hydrogen-oxygen inhalation therapy device. Background Technology

[0002] Hydrogen-oxygen inhalation therapy devices, often referred to as hydrogen-oxygen nebulizers or hydrogen-oxygen mixed inhalation devices, are a type of medical device. Their core function is to generate hydrogen (H2) and oxygen (O2), as well as a mixture of hydrogen and oxygen, through water electrolysis technology, which are then inhaled by patients via the nose for treatment. Due to the selective antioxidant properties of hydrogen and the respiratory support effect of oxygen, hydrogen-oxygen inhalation therapy has received widespread attention in the fields of adjunctive treatment of respiratory diseases, tissue damage repair, and anti-inflammatory responses. Its function is not simply "oxygen supply," but rather, based on the unique biomedical properties of hydrogen combined with the supportive effect of oxygen, it improves symptoms of dyspnea, enhances exercise endurance, and improves quality of life. Its property of reducing respiratory resistance has a direct benefit to patients with COPD.

[0003] Existing hydrogen-oxygen inhalation therapy devices mainly produce hydrogen-oxygen mixtures using water electrolysis technology. However, the following technical problems still exist in practical applications: the hydrogen-oxygen exhaust end of the device lacks a reliable protective structure, making it susceptible to damage from dust, foreign objects, or accidental contact when idle, affecting safety. At the same time, the outer shell of existing devices is mostly an integrated design, requiring the disassembly of the entire structure for inspection and maintenance of internal core components, which is cumbersome and results in low maintenance efficiency. Summary of the Invention

[0004] The purpose of this invention is to provide a continuous and efficient hydrogen-oxygen inhalation therapy device that can seal and protect the exhaust port when not in use, effectively preventing dust and foreign objects from entering the hydrogen-oxygen exhaust end. At the same time, it can be easily disassembled and assembled by means of a sliding snap-fit, which is conducive to subsequent maintenance and replacement work, thereby solving the problems mentioned in the background art.

[0005] To achieve the above objectives, the present invention provides the following technical solution: a continuous high-efficiency hydrogen-oxygen inhalation therapy device, comprising a housing: The inner cavity of the housing is provided with a hydrogen and oxygen generation mechanism, the top of the housing is provided with a protective mechanism to block the hydrogen and oxygen emission end, and the two sides of the housing are provided with a cover mechanism that is easy to disassemble and assemble. The protective mechanism includes a connecting component disposed on the top of the housing and a sealing component connected to the connecting component, wherein an elastic component is disposed at the bottom of the sealing component; The covering mechanism includes an adapter component disposed on the outside of the housing, and a shielding component and a snap-fit ​​component connected to the shielding component are disposed on the outside of the housing. The hydrogen-oxygen manufacturing mechanism includes a water storage component disposed in the inner cavity of the housing and a hydrogen-oxygen forming component connected to the water storage component, and an exhaust component is disposed on one side of the hydrogen-oxygen forming component.

[0006] For example, the connection assembly includes a connection cover fixedly installed on the top of the housing, and both ends of the top of the connection cover are provided with access holes.

[0007] For example, the sealing assembly includes a protective sleeve inserted into the access hole, and a baffle is fixedly mounted on the top of the protective sleeve.

[0008] For example, the elastic component includes a vertical rod fixedly installed at the center of the bottom of the baffle and a circular plate rotatably connected to the bottom end of the vertical rod. A second spring and a connecting tube fixed to the bottom end of the second spring are fixedly installed at the bottom of the circular plate. The connecting tube is fixedly installed at the top of the connecting cover.

[0009] For example, the adapter component includes a groove formed at the bottom of the inner cavity of the housing, and a slot formed on the outer side of the housing.

[0010] For example, the shielding assembly includes a slider slidably connected inside a groove and a housing connected to the slider, wherein the outer side of the housing has a perforation.

[0011] For example, the snap-fit ​​assembly includes a first spring and a telescopic rod fixedly installed inside the wall thickness of the housing. The first spring is located outside the telescopic rod, and a snap-fit ​​plate and a lever connected to the outside of the snap-fit ​​plate are fixedly installed at the top of both the first spring and the telescopic rod.

[0012] For example, the water storage assembly includes a water tank fixedly installed at the top of the inner cavity of the housing and a pump installed at the bottom of the water tank. The water inlet of the pump is connected to the bottom of the water tank, and the water outlet of the pump is connected to a resin filter element.

[0013] For example, the hydrogen-oxygen forming assembly includes an electrolytic cell connected to the bottom of the resin filter element and a gas-water separator connected to the bottom of the electrolytic cell, with a return water box connected to both ends of the bottom of the gas-water separator.

[0014] For example, the exhaust assembly includes an oxygen pipe connected to one side of the top of the gas-water separator, and a hydrogen pipe connected to the other side of the top of the gas-water separator.

[0015] Compared with the prior art, the beneficial effects of the present invention are: 1. This invention features a protective mechanism on the top of the housing, consisting of a connecting component, a sealing component, and an elastic component. When not in use, the protective sleeve tightly seals the inlet hole, effectively preventing dust and foreign objects from entering the hydrogen and oxygen exhaust end. The protective mechanism uses a medical-grade liquid silicone sleeve, coupled with a second spring-driven elastic support structure, to prevent damage caused by accidental contact and to prevent contamination of the exhaust end from affecting the purity of the therapeutic gas. During use, simply stretching and rotating the sealing component moves it, and the adaptive adjustment of the elastic component does not obstruct gas output, ensuring both protective effect and ease of use. This effectively extends the service life of the core exhaust components of the equipment, significantly improving safety and durability.

[0016] 2. The cover-and-close mechanism of the present invention achieves pre-positioning through the precise matching of the sliding groove and the slider, and is fixed by the locking plate driven by the first spring and the telescopic rod, which can be disassembled and assembled without tools; during disassembly, the locking plate and the locking groove can be released by moving the lever, and the outer shell can be quickly separated by sliding along the sliding groove. A single person can complete the inspection and replacement of the internal core components within a few minutes, which completely solves the problems of cumbersome disassembly and time-consuming maintenance of traditional integrated outer shells, greatly reducing the manpower and time costs of operation and maintenance. At the same time, the cover-and-close design of the outer shell can also effectively protect the internal components, reduce wear and tear in daily use, and make disassembly and maintenance efficient and convenient, significantly reducing operation and maintenance costs.

[0017] Other features and advantages of the invention will be set forth in the following description, and will be apparent in part from the description, or may be learned by practicing the invention. The objects and other advantages of the invention may be realized and obtained by means of the structures pointed out in the description and the drawings. Attached Figure Description

[0018] Figure 1 This is a schematic diagram of the structure of the present invention; Figure 2 This is a schematic diagram of the pump structure of the present invention; Figure 3 This is a schematic diagram of the oxygen tube structure of the present invention; Figure 4 This is a schematic diagram of the internal structure of the connecting cover of the present invention; Figure 5 This is a schematic diagram of the slider structure of the present invention; Figure 6 For the present invention Figure 5 A magnified schematic diagram of the structure at point A in the middle.

[0019] In the diagram: 1. Shell; 2. Hydrogen-oxygen generation mechanism; 21. Water tank; 22. Electrolytic cell; 23. Gas-water separator; 24. Water return box; 25. Oxygen pipe; 26. Hydrogen pipe; 27. Pump; 28. Resin filter element; 3. Covering mechanism; 31. First spring; 32. Telescopic rod; 33. Clamping plate; 34. Perforation; 35. Pulley; 36. Slider; 37. Slide groove; 38. Slot; 39. Outer shell; 4. Protective mechanism; 41. Connecting cover; 42. Inlet hole; 43. Connecting pipe; 44. Second spring; 45. Circular plate; 46. Vertical rod; 47. Baffle; 48. Protective sleeve. Detailed Implementation

[0020] 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] This invention provides a continuous high-efficiency hydrogen-oxygen inhalation therapy device, comprising a housing 1: A viewing window is provided on the surface of the housing 1, which is mainly for easy observation of the liquid level inside the water tank 21, so that the corresponding amount of water can be added at any time.

[0022] The inner cavity of the housing 1 is provided with a hydrogen and oxygen production mechanism 2, the top of the housing 1 is provided with a protective mechanism 4 to block the hydrogen and oxygen discharge end, and the two sides of the housing 1 are provided with a cover mechanism 3 that is easy to disassemble and assemble. The protective mechanism 4 includes a connecting component disposed on the top of the housing 1 and a sealing component connected to the connecting component, and an elastic component is disposed at the bottom of the sealing component; The covering mechanism 3 includes an adapter component disposed on the outside of the housing 1, and a shielding component and a snap-fit ​​component connected to the shielding component are disposed on the outside of the housing 1. The hydrogen and oxygen generation mechanism 2 includes a water storage component disposed in the inner cavity of the housing 1 and a hydrogen and oxygen generation component connected to the water storage component. An exhaust component is disposed on one side of the hydrogen and oxygen generation component.

[0023] The bottom of housing 1 is equipped with casters to facilitate its movement to the desired position.

[0024] Preferred: like Figure 4 As shown, the connecting assembly includes a connecting cover 41 fixedly installed on the top of the housing 1. The connecting cover 41 can form an outer cover for protection. Both ends of the top of the connecting cover 41 are provided with access holes 42. The opening of the access holes 42 facilitates the fitting of the protective sleeve 48 and also facilitates the subsequent pipe connection.

[0025] further: like Figure 4 As shown, the sealing assembly includes a protective sleeve 48 inserted into the access hole 42. The protective sleeve 48 is press-fitted with the oxygen tube 25 and the hydrogen tube 26. The protective sleeve 48 is made of medical-grade liquid silicone, which effectively improves the protection effect. A baffle 47 is fixedly installed on the top of the protective sleeve 48. The baffle 47 facilitates the connection of the two sets of protective sleeves 48 and the connection with the elastic component at the bottom.

[0026] in: like Figure 4 As shown, the elastic component includes a vertical rod 46 fixedly installed at the bottom center of the baffle 47 and a circular plate 45 rotatably connected to the bottom end of the vertical rod 46. A second spring 44 and a connecting tube 43 fixedly installed at the bottom of the circular plate 45 are fixedly mounted on the bottom of the second spring 44. The connecting tube 43 is fixedly installed on the top of the connecting cover 41. The connecting tube 43 is used to fix the internal second spring 44 and simultaneously to slide and limit the circular plate 45. The second spring 44 is used to elastically support the circular plate 45, while the circular plate 45 rotatably supports the vertical rod 46. The vertical rod 46 slides through the top end of the connecting tube 43 and the top end of the housing 1.

[0027] A handle is fixedly installed on the top of the baffle 47. The main function of pulling it is to make it easy to pull the baffle 47 and stretch it to a preset height so that it can be rotated to the required position and can be misaligned with the original position, which facilitates subsequent pipeline connection operations.

[0028] It is worth noting that: like Figure 3 As shown, the adapter component includes a groove 37 opened at the bottom of the inner cavity of the housing 1. The groove 37 facilitates the sliding of the adapter slider 36. A slot 38 is opened on the outer side of the housing 1. The slot 38 facilitates the snapping of the adapter plate 33, which facilitates its limited installation and pre-connection.

[0029] Going a step further: like Figure 5 As shown, the shielding assembly includes a slider 36 slidably connected inside the slide groove 37 and a housing 39 connected to the slider 36. The housing 39 is used to cover and protect the outside of the housing 1. The slider 36 and the slide groove 37 are adapted to form a pre-connection limit. A through hole 34 is provided on the outside of the housing 39. The opening of the through hole 34 facilitates the connection between the limit plate 33 and the lever 35. When the lever 35 is operated, the connection between the plate 33 and the lever 35 will slide inside the through hole 34.

[0030] in: like Figure 6As shown, the snap-fit ​​assembly includes a first spring 31 and a telescopic rod 32 fixedly installed inside the wall of the outer casing 39. The first spring 31 and the telescopic rod 32 can support the snap-fit ​​plate 33. The first spring 31 is located on the outside of the telescopic rod 32. The snap-fit ​​plate 33 and the lever block 35 connected to the outside of the snap-fit ​​plate 33 are fixedly installed at the top of the first spring 31 and the telescopic rod 32. The snap-fit ​​plate 33 is easy to install and remove after snap-fitting with the snap-fit ​​slot 38. The lever block 35 can easily move the snap-fit ​​plate 33 to adjust its position when it is forcefully turned.

[0031] For example: like Figure 2 As shown, the water storage assembly includes a water tank 21 fixedly installed at the top of the inner cavity of the housing 1 and a pump 27 installed at the bottom of the water tank 21. The water tank 21 is used to store the water required for hydrogen and oxygen production. The top of the water tank 21 is connected to a water inlet pipe that extends through to the top of the housing 1 and a plug that is threaded to the top of the water inlet pipe. The water inlet of the pump 27 is connected to the bottom of the water tank 21, and the water outlet of the pump 27 is connected to a resin filter element 28. The pump 27 is used to draw water from inside the water tank 21 into the electrolytic cell 22 for processing. Before entering the electrolytic cell 22, the water needs to be pre-treated by filtration through the resin filter element 28.

[0032] in addition: like Figure 2 As shown, the hydrogen-oxygen forming assembly includes an electrolytic cell 22 connected to the bottom of the resin filter element 28 and a gas-liquid separator 23 connected to the bottom of the electrolytic cell 22. The gas-liquid separator 23 mainly functions to separate gas and water to facilitate subsequent liquid recovery and hydrogen-oxygen discharge. Both ends of the bottom of the gas-liquid separator 23 are connected to a return water box 24, which facilitates the recovery of the separated liquid for subsequent reuse.

[0033] at last: like Figure 3 As shown, the exhaust assembly includes an oxygen pipe 25 connected to one side of the top of the gas-water separator 23, and a hydrogen pipe 26 connected to the other side of the top of the gas-water separator 23. The oxygen pipe 25 and the hydrogen pipe 26 can be directly discharged to the outside, and a flow meter and the necessary control valve are built into them to control the flow.

[0034] Hydrogen and oxygen production process: Water tank 21 stores the water source required for hydrogen and oxygen production. After pump 27 is started, water is drawn from water tank 21. The water flows through resin filter element 28 for pre-treatment and is then sent to electrolytic cell 22. Electrolytic cell 22 produces hydrogen and oxygen through water electrolysis technology. The gas enters gas-liquid separator 23 to complete gas-liquid separation. The separated liquid flows back to water return box 24 for recycling and reuse. Pure hydrogen is discharged through hydrogen pipe 26 and oxygen is discharged through oxygen pipe 25. The output flow rate is regulated by the flow meter and control valve built into hydrogen pipe 26 and oxygen pipe 25. In the hydrogen-oxygen production system, the resin filter pre-treats the water source to remove impurities, ensuring the electrolysis efficiency and gas purity of the electrolyzer; the combination of the gas-liquid separator and the return water box achieves efficient gas-liquid separation, and the separated liquid can be recycled and reused, saving water resources; the flow meters and control valves built into the oxygen and hydrogen pipes can precisely adjust the gas output flow rate to meet the needs of different treatment scenarios, making the preparation and output of the hydrogen-oxygen mixture stable and controllable throughout the process, ensuring the consistency of treatment effects, and making hydrogen-oxygen production continuously efficient, environmentally friendly and stable.

[0035] In the idle state, the second spring 44 provides elastic support through the circular plate 45 and the vertical rod 46, and forms a tension force, which drives the protective sleeve 48 to be tightly inserted into the inlet hole 42 of the connecting cover 41, thereby achieving a sealed protection of the hydrogen and oxygen discharge end and preventing dust and foreign objects from entering. When it is necessary to connect an external pipeline to input oxygen, the baffle 47 needs to be pulled up, which will drive the vertical rod 46 and the circular plate 45 to stretch the second spring 44 until the protective sleeve 48 moves up and leaves the sealed position and is above the connecting cover 41. At this time, rotating the connecting cover 41 will drive the vertical rod 46 to rotate together, causing the protective sleeve 48 and the inlet hole 42 to be misaligned. Then, the external suction pipe is passed through the inlet hole 42 into the connecting cover 41 and connected to the corresponding oxygen pipe 25 and hydrogen pipe 26 to form a hydrogen and oxygen supply operation. It effectively prevents dust and foreign objects from entering the hydrogen and oxygen discharge end; when in use, the suction pipe can be connected and the sealing component can be moved by squeezing the elastic component without affecting the gas output. It solves the technical pain point of existing equipment lacking reliable protection and greatly improves the safety and durability of the equipment.

[0036] During installation, one side of the outer casing 39 must be installed first, followed by the other side. During installation, the lever 35 needs to be moved inward beforehand. The lever 35 will slide inside the through hole 34, which will then cause the locking plate 33 to stretch the first spring 31 and the telescopic rod 32 until the locking plate 33 and the slot 38 are horizontally symmetrical. Then the outer casing 39 can be moved horizontally, and the outer casing 39 will cause the slider 36 to slide into the inside of the slot 37. When it can no longer slide and the locking plate 33 is placed inside the slot 38, the lever force applied to the lever 35 is released. Then the lever 35 will tighten the locking plate 33 due to the contraction of the first spring 31, so that the locking plate 33 is tightly locked inside the slot 38, thus completing the installation. During disassembly, simply reverse the above steps: apply a pushing force to the lever 35, then disengage it from the latched state, and then move it horizontally outward until the slider 36 disengages from the inside of the slide groove 37 to complete the disassembly. In the disassembly and assembly process, the outer shell 39 is slidably fitted into the sliding groove 37 of the housing 1 via the slider 36. The first spring 31 and the telescopic rod 32 pull the locking plate 33 into the locking groove 38 of the housing 1, thus completing the fixed cover of the outer shell 39. The through hole 34 provides the moving space for the lever 35. During disassembly and maintenance, the lever 35 is moved to drive the locking plate 33 to stretch the first spring 31 and the telescopic rod 32, so that the locking plate 33 is disengaged from the locking groove 38. The outer shell 39 can be removed by sliding the slider 36 along the sliding groove 37, which facilitates the inspection and maintenance of the internal core components. The outer shell 39 can be quickly separated for internal core component inspection without disassembling the overall structure. The operation is simple and efficient, solving the problem of cumbersome maintenance of existing integrated shells, significantly improving inspection and maintenance efficiency, and reducing maintenance manpower and time costs.

[0037] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A continuous efficient hydrogen-oxygen gas inhalation therapeutic apparatus, characterized in that, The shell (1) comprises a hydrogen-oxygen manufacturing mechanism (2), a protection mechanism (4) for blocking the hydrogen-oxygen gas outlet end, and a cover mechanism (3) for facilitating disassembly and assembly. The protection mechanism (4) comprises a connecting assembly arranged on the top of the shell (1) and a blocking assembly connected with the connecting assembly, and the bottom of the blocking assembly is provided with an elastic assembly. The cover mechanism (3) comprises an adapting assembly arranged on the outside of the shell (1), a blocking assembly arranged on the outside of the shell (1), and a clamping assembly connected with the blocking assembly. The hydrogen-oxygen manufacturing mechanism (2) comprises a water storage assembly arranged in the inner cavity of the shell (1) and a hydrogen-oxygen gas forming assembly connected with the water storage assembly, and one side of the hydrogen-oxygen gas forming assembly is provided with an exhaust assembly. The connecting assembly comprises a connecting cover (41) fixedly installed on the top of the shell (1), and access holes (42) are formed at both ends of the top of the connecting cover (41).

2. The continuous efficient oxygen-hydrogen inhalation therapeutic instrument according to claim 1, characterized in that: The blocking assembly comprises a protective sleeve (48) inserted into the access hole (42), and a baffle (47) is fixedly installed on the top of the protective sleeve (48).

3. The continuous efficient oxygen-hydrogen inhalation therapeutic instrument according to claim 2, characterized in that: The elastic assembly comprises a vertical rod (46) fixedly installed at the center of the bottom of the baffle (47) and a circular plate (45) rotationally connected with the bottom end of the vertical rod (46), the bottom of the circular plate (45) is fixedly installed with a second spring (44) and a connecting pipe (43) fixedly installed at the bottom end of the second spring (44), and the connecting pipe (43) is fixedly installed on the top of the connecting cover (41).

4. The kind of continuous efficient oxygen-hydrogen inhalation therapeutic instrument according to claim 3, characterized in that: The adapting assembly comprises a sliding groove (37) formed in the bottom of the inner cavity of the shell (1), and a clamping groove (38) is formed on the outside of the shell (1).

5. The continuously efficient oxygen and hydrogen inhaler therapy apparatus according to claim 1, characterized in that: The blocking assembly comprises a sliding block (36) slidingly connected in the sliding groove (37) and an outer shell (39) connected with the sliding block (36), and a perforation (34) is formed on the outside of the outer shell (39).

6. The kind of sustained high efficiency oxygen inhalation therapy apparatus according to claim 5, characterized in that: The clamping assembly comprises a first spring (31) and a telescopic rod (32) fixedly installed on the inside of the wall thickness of the outer shell (39), the first spring (31) is located on the outside of the telescopic rod (32), and the top ends of the first spring (31) and the telescopic rod (32) are fixedly installed with a clamping plate (33) and a push block (35) connected with the outside of the clamping plate (33).

7. The kind of continuous efficient oxygen-hydrogen inhalation therapeutic instrument according to claim 6, characterized in that: The water storage assembly comprises a water tank (21) fixedly installed on the top of the inner cavity of the shell (1) and a pump (27) installed on the bottom of the water tank (21), the water inlet end of the pump (27) is communicated with the bottom of the water tank (21), and the water outlet end of the pump (27) is communicated with a resin filter core (28).

8. The continuously efficient oxygen and hydrogen inhaler therapy apparatus according to claim 1, characterized in that: The hydrogen-oxygen gas forming assembly comprises an electrolytic cell (22) communicated with the bottom end of the resin filter core (28) and a steam-water separator (23) communicated with the bottom of the electrolytic cell (22), and both ends of the bottom of the steam-water separator (23) are communicated with a backwater box (24).

9. The kind of continuous efficient oxygen-hydrogen inhalation therapeutic instrument according to claim 8, characterized in that: The exhaust assembly comprises an oxygen pipe (25) communicated with one side of the top of the steam-water separator (23), and a hydrogen pipe (26) communicated with the other side of the top of the steam-water separator (23).

10. The continuously efficient oxygen and hydrogen inhaler therapy device according to claim 9, characterized in that: ​

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