CN211912089U

CN211912089U - Oxygen therapy cabin

Info

Publication number: CN211912089U
Application number: CN201922214493.XU
Authority: CN
Inventors: 韩非愚; 王生力
Original assignee: Beijing Chebaobao Technology Co ltd
Current assignee: Han Feiyu
Priority date: 2019-12-10
Filing date: 2019-12-10
Publication date: 2020-11-13
Anticipated expiration: 2029-12-10

Abstract

Providing an oxygen therapy cabin, wherein the oxygen therapy cabin comprises a cabin body, an air inlet system, an air exhaust system and a control system; wherein the gas inlet system is used for delivering gas into the cabin; the exhaust system is used for exhausting gas in the cabin body; a control system is configured to control the intake and exhaust systems to effect the pressurization and depressurization processes and the pressure maintenance process, wherein a user is able to select one or more of: the method includes selecting one of at least three operating pressures, selecting one of at least three operating durations, selecting one of at least three pressurization rates, and selecting one of at least three pressure relief rates. Because the user can select various operating parameters of the oxygen therapy cabin, the oxygen therapy environment which accords with the characteristics of the user is convenient to customize, and the comfort level is improved. The oxygen therapy cabin can also ensure the air to be fresh and convenient to operate, has high comfort level for users, is convenient to transport and store, and has good recuperation effect.

Description

Oxygen therapy cabin

Technical Field

The utility model relates to an oxygen therapy cabin especially relates to an oxygen therapy cabin convenient to use person operates and has comfortable experience.

Background

There is a hyperbaric oxygen chamber in which pure oxygen is supplied or a high oxygen concentration is maintained to keep people healthy in the oxygen environment.

However, most of the existing oxygen therapy chambers are medical, have high pressure, complicated operation and high specialization degree, need doctors and accompanies, or need professional personnel to operate, and are difficult to be used for health preservation of the general public. And the need to feed pure oxygen or high-concentration oxygen leads to a complicated apparatus and high overall cost.

The oxygen therapy cabin available to the general public in the prior art has fewer functions and cannot meet different requirements caused by individual differences of sex, age, body adaptation degree and the like of users, so that the user experience is poor and even uncomfortable.

Moreover, the existing oxygen therapy cabin available to the general public is small in size, for example, is in a capsule shape, can only accommodate one person, and is inconvenient for a user to move in the cabin, even the user can only climb into the cabin, so that the use comfort is greatly reduced.

Further, the existing oxygen therapy cabin only focuses on supplying gas and maintaining gas pressure but neglects carbon dioxide discharged by people in the cabin body, so that the air in the cabin body is not fresh, and the health care effect is influenced.

Accordingly, the present invention is directed to solving at least one of the above problems and disadvantages in the related art and other technical problems.

SUMMERY OF THE UTILITY MODEL

The utility model provides an oxygen therapy cabin, which is characterized in that the oxygen therapy cabin comprises a cabin body, an air inlet system, an exhaust system and a control system; wherein the gas inlet system is used for delivering gas into the cabin; the exhaust system is used for exhausting gas in the cabin body; the control system is configured to control the air inlet system and the air outlet system to realize the pressurization process and the pressure relief process and the pressure maintaining process of the cabin; wherein the control system is further configured to enable the user to make one or more of the following selections: the pressure relief valve is characterized by selecting one of at least three working pressures, one of at least three working time lengths, one of at least three pressurization speeds and one of at least three pressure relief speeds.

According to an example of the present invention, the control system is configured to: and controlling the operation of the air inlet system and the exhaust system during the pressurization process.

According to an example of the present invention, the control system is configured to: and controlling the air inlet system and the exhaust system to operate in the pressure maintaining process so as to maintain the dynamic balance of the pressure in the cabin.

According to an example of the present invention, the control system is configured to: and controlling the air inlet system and the exhaust system to operate in the pressure relief process.

According to an example of the present invention, the control system comprises a PLC controller.

According to an example of the invention, the control system comprises a touch screen, wherein the user performs the selection by operating the touch screen.

According to an example of the present invention, there are two touch screens, which are respectively located inside the cabin and outside the cabin and have respective operation rights.

According to an example of the present invention, the outer shell of the cabin is formed by splicing at least three sections, and the cabin further comprises a sealing member disposed between the interfaces of adjacent sections.

According to an example of the present invention, the oxygen therapy chamber further comprises a pressure sensor disposed in the chamber body and communicatively connected to the control system.

According to an example of the present invention, the pressure sensor is configured to monitor the pressure change curve in the cabin.

According to an example of the present invention, the control system is configured to control the air inlet system and the exhaust system to achieve a desired cabin pressure variation profile.

According to an example of the present invention, the air intake system comprises at least two sets of air intake devices to achieve the at least three pressurization speeds.

According to an example of the present invention, each set of air inlet means comprises a pump for providing air and an air inlet line; the gas inlet pipeline is used for conveying the gas; and the control system comprises an intake solenoid valve arranged on the intake line for controlling the supply of the gas.

According to the utility model discloses an example, every air inlet unit of group still includes the silencer, the silencer sets up the connection of air inlet pipe way the air inlet department of the cabin body.

According to an example of the present invention, the oxygen therapy chamber further comprises an intake air filtering system disposed at an air inlet of the pump.

According to an example of the present invention, the exhaust system comprises at least two sets of electric exhaust devices to realize the at least three pressure relief speeds.

According to an example of the present invention, each set of electric exhausts comprises an exhaust line connected to an exhaust port on the cabin for exhausting gas; and the control system includes an exhaust solenoid valve provided on the exhaust line for controlling the exhaust of the gas.

According to the utility model discloses an example, every group electric exhaust apparatus still includes the silencer, the silencer sets up exhaust pipe's exit.

According to an example of the invention, the exhaust system further comprises a manual pressure relief valve. The manual pressure relief valves are multiple and are arranged at different positions of the cabin body.

According to an example of the invention, the control system comprises a control cabinet for accommodating at least part of the electrical components of the control system.

According to an example of the present invention, the gas delivered by the gas inlet system to the cabin is air.

According to an example of the present invention, the control system further comprises a fault audible and visual alarm system.

According to an example of the present invention, the oxygen therapy chamber further includes a communicator for communicating with the inside of the chamber and the outside of the chamber.

According to an example of the present invention, the oxygen therapy cabin further comprises a camera to monitor and record the operation process of the control panel of the control system.

According to the utility model discloses an example, there are three kinds during operation: 30min/60min/90 min.

According to an example of the present invention, the working pressure has three kinds: 1.2/1.25/1.3 times atmospheric pressure.

According to an example of the present invention, the pressurization or pressure release modes are respectively three types: fast/normal/slow.

In each exemplary technical scheme, as the user can select various operating parameters of the oxygen therapy cabin, the oxygen therapy environment which accords with the characteristics of the user is convenient to customize, and the comfort level of the user is improved; the control system is configured to enable ventilation during both pressurization and depressurization over-pressure and pressure maintenance, ensuring fresh air. The PLC controller enables the control to be efficiently carried out, and the touch screen is convenient to operate by a user; the spliced structure of the cabin body ensures that the cabin body has a spacious space, can accommodate a plurality of users and is convenient for the users to move and come in and out; the multiple sets of air inlet devices and air outlet devices ensure the rapid pressurization and pressure relief of the large-capacity oxygen therapy cabin. The oxygen therapy cabin has the advantages of convenient operation, high comfort level of users, convenient transportation and storage and good recuperation effect.

Drawings

Features and advantages of embodiments of the present invention will become apparent with reference to the following detailed description and accompanying drawings, in which:

fig. 1 shows a schematic perspective view of an oxygen therapy cabin according to an exemplary embodiment of the present invention.

Detailed Description

The technical solution of the present invention is further described in detail by the following embodiments with reference to the accompanying drawings. The following description of the embodiments of the present invention with reference to the accompanying drawings is intended to explain the general inventive concept and should not be construed as limiting the invention.

Furthermore, in the following detailed description, for purposes of explanation, numerous specific details are set forth in order to provide a thorough understanding of the embodiments. It may be evident, however, that one or more embodiments may be practiced without these specific details. In order to simplify the drawings, well-known structures and devices are not shown in the drawings.

According to an exemplary embodiment of the present invention, an oxygen therapy cabin, or called an oxygen-enriched health preserving cabin, is provided, which is an atmospheric pressure environment device with an internal pressure higher than the standard atmospheric pressure. Based on 'Henry's law, when the human body is placed in the cabin body higher than the standard atmospheric pressure, a large amount of oxygen is dissolved in the blood to realize the oxygen therapy effect, so that the oxygen therapy cabin of the invention does not need to supply pure oxygen, is safer and saves the cost. Specifically, an exemplary embodiment of the present invention provides an oxygen therapy cabin including a cabin body 1, an air intake system 2, an air exhaust system 3, and a control system, wherein the cabin body 1 is configured to accommodate at least one user; the air inlet system 2 is used for conveying air into the cabin; an exhaust system 3 connected to the chamber body for exhausting gas from the chamber body; the control system is configured to control the intake system 2 and the exhaust system 3 to realize a pressurization process and a pressure release process and a pressure maintenance process; and the control system is further configured to enable the user to make one or more of the following selections: the pressure control device is configured to select one of at least three operating pressures, one of at least three operating durations, one of at least three pressurization speeds, or one of at least three pressure relief speeds.

Due to differences in gender, age, fitness, personal preference, etc., of users of the oxygen therapy cabin, different requirements may be imposed on the cabin internal pressure, the recuperation time, the pressurization speed, the pressure release speed, for example, an excessively fast pressurization speed or pressure release speed may cause discomfort for some users, and a lower cabin internal pressure or recuperation time may be required for some infirm users. In the above exemplary solution, the control of the intake system 2 and the exhaust system 3 by the control system enables the user to have multiple options, namely, to select one of at least three operating pressures, one of at least three operating periods, one of at least three pressurization speeds, or one of at least three pressure relief speeds, so as to better meet the diversified needs of the user and increase the comfort thereof.

As an example, the operating period may be provided with a plurality of gears for selection by the user, for example three gears, for example 30min/60min/90 min. The operating pressure may be provided with three gears for the user to select: 1.2/1.25/1.3 times atmospheric pressure. The pressurizing or pressure releasing speed can also be respectively set to three gears: fast/normal/slow. Those skilled in the art will appreciate that the above-mentioned setting of each gear is only an example, and different numbers of gears or corresponding gear parameters may be set according to requirements.

Preferably, the volume of the cabin 1 of the present invention is designed to accommodate a plurality of persons. The height of the hatch 6 may be designed to be substantially upright for adult access. Therefore, the cabin body has high and spacious appearance, people are not easy to generate closed phobia in the cabin body, and users can move and get in and out conveniently.

As an example, the outer shell of the nacelle 1 is formed by splicing at least three sections, and the nacelle further comprises a sealing member disposed between the joints of adjacent sections. In this solution the cabin is assembled from several sections, thereby facilitating transport and storage of the components. Further, the number of the sections can be flexibly selected according to requirements to form different cabin body lengths so as to form oxygen therapy cabins with different containing volumes.

Because in the pressurization process, for example, in the pressurization process of several minutes or even tens of minutes or longer, the breathing of personnel in the cabin body increases the concentration of carbon dioxide in the air in the sealed cabin body, and the air is not fresh enough, thereby leading to the experience of personnel in it not good, therefore, in the embodiment of the utility model, in the pressurization process, not only operate air intake system 2 admits air, also operate exhaust system 3 to realize taking a breath. Accordingly, the present invention provides an example of a control system configured to: controlling the operation of both the intake system 2 and the exhaust system 3 during the pressurization process. So that venting to expel carbon dioxide can also be performed during pressurization. As an example, the control system may be configured to control the intake system 2 and the exhaust system 3 during the pressurization process such that intake and exhaust occur simultaneously but at different speeds, wherein the intake speed of the intake system 2 is greater than the exhaust speed of the exhaust system 3, while the pressurization process is being carried out while air freshening is ensured. However, it will be appreciated by those skilled in the art that the control system may be arranged in other ways as desired, for example such that the exhaust system 3 is operated intermittently or periodically, or such that the exhaust system 3 is operated after a certain period of time after the start of the pressurisation process.

Similarly, the control system is configured such that both the intake system 2 and the exhaust system 3 are controlled to operate during the pressure relief process. Illustratively, the air intake system 2 and the air exhaust system 3 may be controlled such that air intake and air exhaust occur simultaneously but at different rates, where the air intake rate of the air intake system 2 is less than the air exhaust rate of the air exhaust system 3 to ensure air freshening while achieving a pressure relief process.

Further, the control system is configured such that the air intake system 2 and the exhaust system 3 are both controlled to operate during the pressure maintenance process to maintain a dynamic balance of the pressure within the cabin. For example, the intake and exhaust may be made to occur simultaneously and the intake and exhaust speeds set separately as needed. By the scheme, after the pressurization process is finished, the air inlet system is not simply closed, but the air inlet operation and the air exhaust operation are carried out to keep the dynamic balance of the pressure in the cabin body, so that the oxygen therapy pressure and the oxygen therapy effect are ensured, and the freshness of air is kept.

According to one example, in order to prevent "short-circuiting" of fresh gas, i.e. to prevent air from entering and then being directly expelled without diffusing in the cabin, air inlets and air outlets may be placed at the cabin head and the cabin tail, respectively.

According to one example, the control system comprises a PLC controller to control the air intake system 2 and the exhaust system 3.

Preferably, the control system comprises a touch screen 5, wherein the user selects each gear of the working pressure, the working duration, the pressurization speed and the pressure relief speed by operating the touch screen. As an example, there are two touch screens respectively located inside the cabin 1 and outside the cabin 1, so as to facilitate operations by cabin personnel or operations by cabin personnel. Preferably, the two touch screens are independently operable and controllable. The two touch screens can also be given different operating rights.

Further, a pressure sensor may be arranged in the cabin 1 and communicatively connected to the control system. Advantageously, the pressure profile in the cabin monitored by the pressure sensor is dynamically displayed by the touch screen. Therefore, the change process of the pressure in the cabin can be intuitively displayed on the touch screen, and the air inlet system 2 and the air outlet system 3 can be coordinately controlled according to the needs to realize the expected pressure change curve in the cabin. For example, the pressurization speed and the depressurization speed are kept to be linearly changed, or the pressure is kept constant. Alternatively, a separate display may be provided to display the time profile of the pressure in the cabin.

As an example, the air intake system 2 of the oxygen therapy cabin may comprise at least two sets of air intake devices, each set being capable of achieving the at least three pressurization speeds. More air intake devices are turned on when a faster pressurization rate is desired, and vice versa when a slower pressurization rate is desired.

Similarly, the exhaust system 3 comprises at least two sets of electric exhaust devices to achieve the at least three pressure relief speeds.

As an example, each set of air intake means comprises a pump 21 and an air intake line 23, wherein the pump 21 is used to provide the gas and the air intake line 23 is used to convey said gas; and the control system comprises an inlet solenoid valve 22, arranged on the inlet line, for controlling the supply of the gas.

Preferably, the oxygen therapy cabin further comprises an intake air filtering system arranged at an air inlet of the pump 21 of the air intake device. The air inlet filtering system can filter air and can realize various filtering functions according to requirements, such as filtering fine particles and purifying the air entering the cabin.

A muffler 24 may be provided at the air inlet where the air inlet line 23 connects to the cabin 1. A muffler may be provided in the exhaust line 31. The noise in the air intake and exhaust process can be reduced by the means.

Preferably, in order to realize the manual pressure relief of the oxygen therapy cabin when the emergency condition of the health preserving cabin occurs, such as in a power-off state, a manual pressure relief valve is arranged. The manual pressure relief valve can be provided in a plurality of numbers according to requirements, for example, at different positions of the cabin body, for example, on the head and tail sections at two ends of the cabin body, so as to realize pressure relief by fast operation in emergency.

Optionally, an air conditioner indoor hanging machine mounting rack can be left in the cabin to mount an air conditioner, so that the adaptive temperature in the cabin can be adjusted.

An oxygen therapy cabin as one specific example of the present invention is described below. As shown in figure 1, the structure of the oxygen therapy cabin body adopts a sectional design and manufacture, the shell of the oxygen therapy cabin body is divided into five sections, the joints of the sections are connected by bolts, and sealing gaskets are additionally arranged for sealing, and the design mode is convenient to carry and store. The air inlet system 2 of the oxygen therapy cabin comprises two air pumps 21, two air inlet electromagnetic valves 22, two silencers 24, two air inlet pipelines 23 and the like, wherein the two air inlet pipelines 23 are arranged at the head of the cabin and mainly used for conveying compressed air into the health maintenance cabin and keeping the atmosphere pressure in the health maintenance cabin to reach a certain standard, and the silencers 24 are arranged at two air inlet parts of the cabin body to reduce the noise of air inlet flow.

The exhaust system 3 of the oxygen therapy cabin comprises two exhaust electromagnetic valves 32, two manual pressure release valves (not shown), a silencer, two exhaust pipelines 31 and the like, and is mainly responsible for adjusting pressure balance in the health maintenance cabin and safely releasing pressure and exhausting. Two paths of exhaust pipelines 31 are respectively arranged on the tail section of the cabin body, two manual pressure release valves are respectively arranged on the head section and the tail section of the cabin body, and each exhaust port is also provided with a silencer to reduce the noise of exhaust airflow.

The control system of the oxygen therapy cabin utilizes a PLC controller and a touch screen for control, wherein the PLC controller, each electromagnetic valve, other electric control components, an air inlet pump and the like can be installed in a control cabinet in a centralized manner, and an operation control interface is displayed through the touch screen. The system is provided with two touch screens, wherein the two touch screens are respectively arranged outside the cabin in the cabin and can be independently operated and controlled in a permission mode, the touch screen 5 outside the cabin is arranged near the cabin door outside the cabin, and the touch screen in the cabin is arranged in the central position inside the cabin. The control cabinet is placed on the back of the outer part of the cabin body, and the wiring of the internal and external wiring of the cabin body, the air inlet pipeline and the exhaust pipeline is hidden and not exposed as much as possible so as to keep the whole health maintenance cabin simple, beautiful and elegant. The control system is configured to achieve the following:

1) three working hours are provided for the user to select: any gear in 30min/60min/90min (including pressurization and depressurization time).

2) Three working pressures "1.2/1.25/1.3 times atmospheric pressure" are provided for selection by the user.

3) Three pressurizing or pressure releasing speeds are provided for the user to select, and the user can select any one of the modes of "fast/normal/slow" by one key to pressurize or release pressure, wherein the fast speed is 6-8 min, for example, and the slow speed is 12min, for example.

4) The pressure monitoring device has the function of dynamically displaying the pressure condition in the cabin on a display screen.

5) Safety of the power supply in the cabin: the lighting voltage in the cabin is 24V or 36V (alternating current) safe voltage.

6) Has the function of leakage protection.

7) Has the functions of sound-light alarm and self-locking protection in case of failure.

8) The interphone is provided with a interphone which has the function of intercommunication between the inside and the outside of the cabin.

9) The operation 'black box' is arranged, the camera is adopted to monitor and record the operation process of the control panel, and the operation management personnel can conveniently inquire.

Although a few embodiments of the present general inventive concept have been shown and described, it would be appreciated by those skilled in the art that changes may be made in these embodiments without departing from the principles and spirit of the general inventive concept, the scope of which is defined in the claims and their equivalents.

Claims

1. An oxygen therapy cabin, characterized in that the oxygen therapy cabin comprises:

a cabin (1);

an air inlet system (2) for delivering gas into the enclosure;

an exhaust system (3) for exhausting gas from the cabin; and

a control system configured to control the intake system (2) and the exhaust system (3) to achieve a pressurization process and a pressure relief process and a pressure maintenance process;

wherein the control system is further configured to enable a user to make one or more of the following selections:

the method includes selecting one of at least three operating pressures, selecting one of at least three operating durations, selecting one of at least three pressurization rates, and selecting one of at least three pressure relief rates.

2. The oxygen therapy cabin according to claim 1,

the control system is configured to: controlling the operation of both the intake system (2) and the exhaust system (3) during the pressurization process.

3. The oxygen therapy cabin according to claim 1 or 2,

the control system is configured to: and controlling the air inlet system (2) and the air outlet system (3) to operate in the pressure maintaining process so as to maintain the dynamic balance of the pressure in the cabin.

4. The oxygen therapy cabin according to claim 1 or 2,

the control system is configured to: and controlling the air inlet system (2) and the exhaust system (3) to operate in the pressure relief process.

5. The oxygen therapy cabin according to claim 1,

the control system comprises a PLC controller.

6. The oxygen therapy cabin according to claim 1, wherein the control system comprises a touch screen (5), wherein the user makes the selection by operating the touch screen.

7. The oxygen therapy cabin according to claim 6, characterized in that the touch screens are two, respectively positioned inside the cabin body (1) and outside the cabin body (1), and respectively have respective operation authorities.

8. The oxygen therapy cabin according to claim 1,

the shell of the cabin body (1) is formed by splicing at least three sections, and the cabin body further comprises a sealing element arranged between the interfaces of the adjacent sections.

9. The oxygen therapy cabin according to claim 6, characterized in that it further comprises a pressure sensor disposed in the cabin body (1) and communicatively connected to the control system.

10. The oxygen therapy cabin according to claim 9,

and dynamically displaying the pressure change curve in the cabin monitored by the pressure sensor through the touch screen.

11. The oxygen therapy cabin according to claim 10,

the control system is configured to control the air intake system (2) and the exhaust system (3) to achieve a desired cabin pressure profile.

12. An oxygen therapy cabin according to claim 1, characterized in that the air intake system (2) comprises at least two sets of air intake means to achieve said at least three pressurization speeds.

13. The oxygen therapy cabin according to claim 12, wherein each set of air intake means comprises:

a pump (21) for providing a gas;

an inlet line (23) for conveying the gas; and is

The control system comprises an intake solenoid valve (22) arranged on the intake line for controlling the supply of the gas.

14. The oxygen therapy cabin according to claim 13, wherein each set of air inlet means further comprises a muffler (24), the muffler (24) being disposed at an air inlet of the air inlet duct connecting the cabin body.

15. The oxygen therapy cabin according to claim 13, further comprising an intake air filtration system provided at an intake port of the pump.

16. An oxygen therapy cabin according to claim 1, characterized in that the exhaust system (3) comprises at least two sets of electrically powered exhausts to achieve said at least three decompression rates.

17. The oxygen therapy cabin according to claim 16, wherein each set of said electrically powered air discharge means comprises:

an exhaust line (31) connected to an exhaust port on the cabin to exhaust gas; and is

The control system includes an exhaust solenoid valve (32) disposed on the exhaust line for controlling the exhaust of gas.

18. The oxygen therapy cabin according to claim 17, wherein each set of electrically powered exhaust devices further comprises a muffler (24), the muffler (24) being disposed at an outlet of the exhaust duct.

19. An oxygen therapy cabin according to claim 16, characterized in that the exhaust system (3) further comprises a manual pressure relief valve.

20. The oxygen therapy cabin according to claim 19, wherein there are a plurality of manual pressure relief valves provided at different positions of the cabin body.

21. An oxygen therapy cabin according to claim 1, characterized in that the control system comprises a control cabinet (4) for housing at least part of the electrical components of the control system.

22. The oxygen therapy cabin according to claim 1, wherein the gas delivered into the cabin by the gas inlet system (2) is air.

23. The oxygen therapy cabin according to claim 1, wherein the control system further comprises a malfunction sound and light alarm system.

24. The oxygen therapy cabin according to claim 1, wherein the oxygen therapy cabin further comprises a communicator for communicating the inside of the cabin with the outside of the cabin.

25. The oxygen therapy cabin according to claim 1, further comprising a camera for monitoring and recording the operation process of the control panel of the control system.

26. The oxygen therapy cabin according to claim 1, wherein the operating time is of three kinds: 30min, 60min and 90 min.

27. The oxygen therapy cabin according to claim 1, wherein the working pressure is of three kinds: 1.2 times atmospheric pressure, 1.25 times atmospheric pressure, and 1.3 times atmospheric pressure.

28. The oxygen therapy cabin according to claim 1, wherein the pressurization or depressurization rates are three in each case: fast, normal and slow.