Combined hyperbaric oxygen chamber

Abstract

The utility model discloses a combined hyperbaric oxygen chamber, and relates to the technical field of hyperbaric oxygen chambers, the combined hyperbaric oxygen chamber comprises two top cover plates and an oxygen chamber body, the top cover plates are used as shell components of the oxygen chamber body, the cross section of the oxygen chamber body is square, the oxygen chamber body is hollow, and the top cover plates are located at the top of the oxygen chamber body; the supporting frames serve as pressure-bearing and mounting carriers and are made of high-strength composite materials, a set of mounting holes are formed in multiple ends of each supporting frame, the number of the mounting holes in each set is multiple, and the multiple supporting frames are fixed through bolts in each set of mounting holes. By means of the combined design, the hyperbaric oxygen chamber can be disassembled into small modules during transportation, the overall transportation size is effectively reduced, transportation is convenient, the transportation difficulty is reduced, the space utilization rate of a transportation tool can be increased, and therefore the transportation cost of the hyperbaric oxygen chamber is reduced.

Description

Technical Field

[0001] The present invention relates to the field of high-pressure oxygen chambers, and particularly to a combined high-pressure oxygen chamber. Background Art

[0002] Hyperbaric oxygen therapy is a unique and highly valuable medical treatment. During this treatment process, patients are placed in an environment with a pressure higher than normal atmospheric pressure and inhale pure oxygen or oxygen with a very high concentration in such an environment. Hyperbaric oxygen therapy holds a crucial position in the medical field because it has many remarkable effects. First of all, it can effectively improve the condition of tissue hypoxia. During the development process of many diseases, tissue hypoxia is a key pathological factor. For example, local tissue blood supply insufficiency caused by certain cardiovascular diseases, or oxygen uptake disorders caused by certain respiratory diseases. Hyperbaric oxygen therapy can provide sufficient oxygen supply to hypoxic tissues, thereby alleviating the condition.

[0003] Most of the existing high-pressure oxygen chambers are of an integral and non-detachable large-volume structure, which is quite inconvenient during transportation and loading / unloading. It restricts the choice of transportation vehicles, makes route planning difficult, and requires special loading / unloading sites and equipment. It also increases transportation risks, costs, and time, and increases the possibility of damage, causing many problems in delivery and use. Summary of the Invention

[0004] To solve the technical problems raised in the above background art, the present invention provides a combined high-pressure oxygen chamber, and its advantages are as follows: The combined design enables the high-pressure oxygen chamber to be disassembled into smaller modules during transportation, effectively reducing the overall transportation volume, lowering the transportation difficulty, and also improving the space utilization rate of transportation tools. Due to the reduction of the transportation volume, it is more convenient to store during transportation, and the protective sleeves or protective frames equipped for each plate body during transportation stacking can effectively buffer the external impact, avoiding direct collision between the plate bodies and between the plate bodies and the transportation tools, making the modular structure less likely to be damaged during transportation, reducing transportation risks and potential maintenance costs.

[0005] To achieve the above object, the present invention specifically adopts the following technical solutions:

[0006] A combined high-pressure oxygen chamber includes a top cover plate and an oxygen chamber body. The top cover plate is a part of the outer shell of the oxygen chamber body. The cross-section of the oxygen chamber body is square, the oxygen chamber body is hollow, the top cover plate is located at the top of the oxygen chamber body, and the number of the top cover plates is set to two;

[0007] Support frames, which serve as pressure-bearing and installation carriers, are made of high-strength composite materials. The number of support frames is set to be multiple. Each support frame has a group of installation holes opened at multiple ends. The number of each group of installation holes is set to be multiple. Multiple support frames are fixed by bolts through each group of installation holes.

[0008] The present invention is further configured such that every two support frames are connected by bolts to form one panel surface of the oxygen chamber body. There are six panel surfaces in total. An air-conditioning component is provided inside the oxygen chamber body.

[0009] Through the above technical solutions: The modular design enables the hyperbaric oxygen chamber to be disassembled into smaller modules during transportation, effectively reducing the overall transportation volume, facilitating transportation, reducing the transportation difficulty, and also improving the space utilization rate of the transportation vehicle. Due to the reduction of the transportation volume, costs such as fuel consumption and road and bridge tolls during transportation are also correspondingly reduced.

[0010] The present invention is further configured such that two top cover plates, two bottom tray plates, two rear vertical plates, and multiple side vertical plates are provided on the outer sides of multiple panel surfaces. Multiple installation holes are provided around each top cover plate, bottom tray plate, side vertical plate, and rear vertical plate. Every two top cover plates, bottom tray plates, side vertical plates, and rear vertical plates are connected by bolts.

[0011] The present invention is further configured such that inner side thermal insulation plates are provided inside the two support frames at the top. The two top cover plates are respectively located above the corresponding inner side thermal insulation plates. The two top cover plates are respectively connected to the corresponding support frames by bolts.

[0012] The present invention is further configured such that side vertical plate thermal insulation plates are provided inside the two support frames on both sides. Every two side vertical plates are respectively located outside the corresponding side vertical plate thermal insulation plates. Multiple side vertical plates are respectively connected to the corresponding support frames by bolts.

[0013] The present invention is further configured such that back plate thermal insulation plates are provided inside the two support frames at the rear. The two rear vertical plates are located at the rear of the back plate thermal insulation plates. The two rear vertical plates are respectively connected to the corresponding support frames by bolts.

[0014] The present invention is further configured such that bottom plate thermal insulation plates are provided inside the two support frames at the bottom. The two bottom tray plates are located at the bottom of the bottom plate thermal insulation plates. The two bottom tray plates are respectively connected to the corresponding support frames by bolts.

[0015] Through the above technical solutions: Every two support frames are connected by bolts to form six panel surfaces of the oxygen chamber body, and then top cover plates, bottom tray plates, rear vertical plates, and side vertical plates are installed on the outer sides of multiple panel surfaces. These plate components are respectively connected to the corresponding support frames by bolts. At the same time, corresponding thermal insulation plates are provided inside the support frames at the top, both sides, rear, and bottom to enhance the thermal insulation performance of the oxygen chamber.

[0016] The present invention is further configured such that grid meshes are provided on the opposite sides of each top cover plate and bottom tray plate, and the grid meshes are used to improve the rigidity and anti-deformation ability of the hyperbaric oxygen chamber body.

[0017] Through the above technical solutions: The setting of the grid meshes significantly improves the rigidity of the top cover plate and the bottom tray plate, enabling the hyperbaric oxygen chamber body to better maintain the integrity of its shape and structure when bearing internal pressure and external impacts, and reducing the risk of deformation and damage.

[0018] The present invention is further configured such that a door panel heat preservation board is provided inside one of the support frames located on the front side. A door frame cylinder surrounding sleeve is provided inside the door panel heat preservation board. A left door panel is provided on the front side of the door frame cylinder surrounding sleeve. A plurality of mounting holes are formed around the outer side of the left door panel for connecting with the support frame. A plurality of mounting holes are formed around the periphery of the door frame cylinder surrounding sleeve close to the bottom plate heat preservation board and the inner periphery of the bottom plate heat preservation board. The door frame cylinder surrounding sleeve and the bottom plate heat preservation board are connected by a plurality of bolts.

[0019] The present invention is further configured such that a window plate heat preservation board is provided inside the other support frame located on the front side. A window cylinder surrounding sleeve is provided inside the window plate heat preservation board. A right window plate is provided on the front side of the window cylinder surrounding sleeve. A window lintel plate is provided on the front side of the right window plate. A plurality of mounting holes are formed around the periphery of the right window plate, the window lintel plate, and the window cylinder surrounding sleeve. The right window plate is connected to the support frame by bolts, and the right window plate is connected to the window lintel plate and the window cylinder surrounding sleeve by threads.

[0020] Through the above technical solutions: The setting of the left door panel and the right window plate realizes the functional differentiation of the access passage and the observation window, meeting the usage requirements of the hyperbaric oxygen chamber.

[0021] The beneficial effects of the present invention are as follows:

[0022] 1. Through the modular design of the present invention, the hyperbaric oxygen chamber can be disassembled into smaller modules during transportation, effectively reducing the overall transportation volume, lowering the transportation difficulty, and improving the space utilization rate of the transportation tool. Due to the reduction of the transportation volume, it is more convenient to store during transportation. Moreover, the protective sleeves or protective frames provided for each plate body during transportation and stacking can effectively buffer external impacts, avoiding direct collisions between the plate bodies and between the plate bodies and the transportation tool, making the modular structure less likely to be damaged during transportation, reducing transportation risks and potential maintenance costs.

[0023] 2. The connection of each vertical plate and support frame of the present invention by bolt connection is simple and reliable, ensuring the firmness of the connection of each component, improving the overall structural stability of the hyperbaric oxygen chamber body, and also making the hyperbaric oxygen chamber body very convenient in terms of transportation and storage. The accessories constituting the hyperbaric oxygen chamber body can be prefabricated in the factory, and only simple splicing and assembly are required on-site, greatly reducing the on-site construction time and workload.

[0024] 3. Multiple heat preservation boards of the present invention can effectively reduce the heat exchange between the inside of the oxygen chamber body and the external environment. During hyperbaric oxygen therapy, maintaining a stable and appropriate temperature is crucial for the comfort and treatment effect of patients. It can prevent the influence of external high or low temperatures on the temperature inside the oxygen chamber, ensure that the temperature inside the oxygen chamber is always maintained within the set ideal temperature range, and also reduce the energy consumption required to maintain the temperature inside the oxygen chamber. BRIEF DESCRIPTION OF THE DRAWINGS

[0025] Figure 1 It is a schematic diagram of the overall structure of a combined hyperbaric oxygen chamber proposed by the present invention;

[0026] Figure 2 It is a side view of a combined hyperbaric oxygen chamber proposed by the present invention;

[0027] Figure 3 It is an internal view of the oxygen chamber body of a combined hyperbaric oxygen chamber proposed by the present invention;

[0028] Figure 4 It is an exploded view of a combined hyperbaric oxygen chamber proposed by the present invention;

[0029] Figure 5 It is a schematic diagram of the bottom tray plate of a combined hyperbaric oxygen chamber proposed by the present invention;

[0030] Figure 6 It is a schematic diagram of the connection structure between the left door panel and the door frame cylinder peripheral edge sleeve of a combined hyperbaric oxygen chamber proposed by the present invention;

[0031] Figure 7 It is a schematic diagram of the connection structure between the window cylinder peripheral edge sleeve and the window plate heat preservation board of a combined hyperbaric oxygen chamber proposed by the present invention;

[0032] Figure 8 It is a schematic diagram of the air conditioning component of a combined hyperbaric oxygen chamber proposed by the present invention.

[0033] In the figure: 1. Top cover plate; 2. Bottom tray plate; 3. Side vertical plate; 4. Rear vertical plate; 5. Left door panel; 6. Right window plate; 7. Window brow plate; 8. Window cylinder peripheral edge sleeve; 9. Door frame cylinder peripheral edge sleeve; 10. Top plate heat preservation board; 11. Side vertical plate heat preservation board; 12. Back plate heat preservation board; 13. Door panel heat preservation board; 14. Window plate heat preservation board; 15. Bottom plate heat preservation board; 16. Support frame; 17. Oxygen chamber body; 18. Air conditioning component. DETAILED DESCRIPTION OF THE INVENTION

[0034] The technical solutions of the present invention will be further described in detail below in conjunction with the specific embodiments.

[0035] Embodiments of the present invention will be described in detail below. Examples of the embodiments are shown in the accompanying drawings, where the same or similar reference numerals denote the same or similar elements or elements having the same or similar functions throughout. The embodiments described below by referring to the accompanying drawings are exemplary and are only used to explain the present invention and should not be construed as a limitation of the present invention.

[0036] Referring to Figures 1-8 , a combined hyperbaric oxygen chamber, comprising a top cover plate 1 and an oxygen chamber body 17. The top cover plate 1 is a part of the outer shell of the oxygen chamber body 17. The cross-section of the oxygen chamber body 17 is square, and the oxygen chamber body 17 is hollow. The top cover plate 1 is located at the top of the oxygen chamber body 17, and the number of the top cover plates 1 is set to two;

[0037] A support frame 16, which serves as a pressure-bearing and installation carrier and is made of a high-strength composite material. The number of the support frames 16 is set to be multiple. A set of installation holes are opened at multiple ends of each support frame 16. The number of each set of installation holes is set to be multiple, and multiple support frames 16 are fixed by bolts through each set of installation holes.

[0038] First, the support of the oxygen chamber body 17 is made of a high-strength composite material, enabling the oxygen chamber body 17 to withstand higher pressures without obvious deformation or damage. This improved oxygen chamber body 17 is more stable in the face of a high-pressure environment, reducing the risk of structural deformation caused by pressure, ensuring the normal operation and service life of the hyperbaric oxygen chamber, and being able to adapt to more demanding usage conditions, expanding the application range of the hyperbaric oxygen chamber. The improved laminate structure can better meet these requirements and enhance the applicability and functionality of the hyperbaric oxygen chamber.

[0039] Secondly, the combined design makes the oxygen chamber body 17 very convenient in terms of transportation and storage. The accessories that make up the oxygen chamber body 17 can be pre-fabricated in the factory, and only simple splicing and assembly are required on site, greatly reducing the on-site construction time and workload.

[0040] The combined design enables the hyperbaric oxygen chamber to be disassembled into smaller modules during transportation, effectively reducing the overall transportation volume. This not only facilitates transportation, reduces the transportation difficulty, but also improves the space utilization rate of the transportation tool. Due to the reduction of the transportation volume, it is more convenient to store during transportation. And protective sleeves or protective frames (made of soft but elastic and wear-resistant materials such as rubber and foam, not shown in the prior art drawings) equipped for each plate body during transportation and stacking can effectively buffer the external impact, avoid direct collision between the plate bodies and between the plate bodies and the transportation tool, making the modular structure less likely to be damaged during transportation, reducing the transportation risk and potential maintenance costs.

[0041] Referring to Figures 1-8, every two support frames 16 are bolted together to form one panel surface of the oxygen chamber body 17. There are six panel surfaces in total. An air-conditioning assembly 18 is provided inside the oxygen chamber body 17. On the outer sides of multiple panel surfaces, there are two top cover plates 1, two bottom tray plates 2, two rear vertical plates 4, and multiple side vertical plates 3. A plurality of mounting holes are provided around each of the top cover plates 1, bottom tray plates 2, side vertical plates 3, and rear vertical plates 4. Every two of the top cover plates 1, bottom tray plates 2, side vertical plates 3, and rear vertical plates 4 are bolted together. Inside the two support frames 16 at the top, there are top plate insulation boards 10. The two top cover plates 1 are respectively located above the corresponding top plate insulation boards 10, and the two top cover plates 1 are respectively bolted to the corresponding support frames 16. Inside the two support frames 16 on both sides, there are side vertical plate insulation boards 11. Every two side vertical plates 3 are respectively located outside the corresponding side vertical plate insulation boards 11, and the multiple side vertical plates 3 are respectively bolted to the corresponding support frames 16. Inside the two support frames 16 at the rear, there are back plate insulation boards 12. The two rear vertical plates 4 are located at the rear of the back plate insulation boards 12, and the two rear vertical plates 4 are respectively bolted to the corresponding support frames 16. Inside the two support frames 16 at the bottom, there are bottom plate insulation boards 15. The two bottom tray plates 2 are located at the bottom of the bottom plate insulation boards 15, and the two bottom tray plates 2 are respectively bolted to the corresponding support frames 16.

[0042] The thicknesses of the two top cover plates 1, two bottom tray plates 2, two rear vertical plates 4, and multiple side vertical plates 3 are all 3 cm, and the two top cover plates 1, two bottom tray plates 2, two rear vertical plates 4, and multiple side vertical plates 3 are made of the original soft cabin material and hardened into multiple top cover plates 1, bottom tray plates 2, side vertical plates 3, and rear vertical plates 4 after special treatment. After the multiple plates are sealed, there is no need to set a soft layer inside the oxygen chamber body 17.

[0043] By bolting every two support frames 16 together to form six panel surfaces of the oxygen chamber body 17, and then installing the top cover plates 1, bottom tray plates 2, rear vertical plates 4, and side vertical plates 3 on the outer sides of multiple panel surfaces. These plate components are respectively bolted to the corresponding support frames 16, and at the same time, corresponding insulation boards are provided inside the support frames 16 at the top, both sides, rear, and bottom to enhance the heat preservation performance of the oxygen chamber.

[0044] The air-conditioning assembly 18 includes a grille air outlet and an air handling unit. Patients and operators inside the high-pressure oxygen chamber need a relatively comfortable temperature environment during the treatment process. The air-conditioning assembly 18 can automatically adjust according to the set temperature to ensure that the temperature inside the chamber is maintained within an appropriate range, generally around 22°C - 26°C, improving the comfort of patients and reducing restlessness and discomfort caused by temperature discomfort.

[0045] The bolt connection method is simple and reliable, ensuring the firmness of the connection of each component and improving the overall structural stability of the hyperbaric chamber body 17.

[0046] Multiple insulation boards play a crucial role in the hyperbaric chamber body 17. During hyperbaric oxygen therapy, patients need to be in a stable and suitable temperature environment. This is crucial for their comfort, as an inappropriate temperature may cause patients to feel cold or hot, affecting their experience and cooperation during the treatment process. At the same time, a stable temperature also has a direct impact on the treatment effect. For example, certain treatment processes may have specific requirements for temperature. If the temperature fluctuates too much, it may interfere with the normal progress of the treatment and affect the effectiveness of the treatment.

[0047] The existence of multiple insulation boards (top plate insulation board 10, side plate insulation board 11, back plate insulation board 12, door plate insulation board 13, window plate insulation board 14, bottom plate insulation board 15) effectively blocks the heat transfer between the inside of the hyperbaric chamber body 1 and the outside. When the outside environmental temperature is high, multiple insulation boards can prevent a large amount of external heat from entering the hyperbaric chamber, avoiding too high an internal temperature. Conversely, when the outside temperature is low, it can prevent the heat inside the hyperbaric chamber body 1 from dissipating to the outside, ensuring that the internal temperature does not drop too low. In this way, the inside of the hyperbaric chamber can always be maintained within the set ideal temperature range, without being overly disturbed by changes in the outside temperature.

[0048] And if there is no insulation board set inside the multiple support frames 16 of the hyperbaric chamber body 1, when the outside temperature is low, the heat inside the hyperbaric chamber body 1 will quickly dissipate through these support frames 16 without insulation boards; when the outside temperature is high, the external heat will also easily enter the inside of the hyperbaric chamber body 1 through the support frames 16 and the vertical plates. To offset this large amount of heat dissipation or inflow and keep the temperature inside the hyperbaric chamber body 1 constant, the heating or cooling equipment has to operate continuously at a high intensity. This means that the equipment needs to continuously consume a large amount of energy to generate or absorb heat to make up for the heat lost or increased through the support frame part. However, when multiple insulation boards (top plate insulation board 10, side plate insulation board 11, back plate insulation board 12, door plate insulation board 13, window plate insulation board 14, bottom plate insulation board 15) are set inside the support frames 16, the situation has been greatly improved. The multiple insulation boards effectively prevent the heat from passing through the support frames, greatly reducing the heat dissipation and inflow. In this way, the heating or cooling equipment does not need to keep running at full power and can work intermittently or maintain the temperature at a lower power after reaching the set temperature, thus significantly reducing the energy consumption.

[0049] Multiple insulating panels (the top plate insulating panel 10, the side plate insulating panel 11, the back plate insulating panel 12, the door plate insulating panel 13, the window plate insulating panel 14, the bottom plate insulating panel 15) can be made of polystyrene foam board or other existing insulating materials.

[0050] An insulating panel is provided inside each support frame 16, so that the insulating panels inside the hyperbaric chamber body 17 are installed individually, and can be installed and adjusted in position one by one according to needs. When a certain insulating panel is damaged or aged, only this panel needs to be replaced, without the need for overall replacement, which reduces the maintenance cost. Moreover, according to the temperature requirements and usage frequencies of different parts of the hyperbaric chamber body 17, insulating panels with different performances or thicknesses can be flexibly selected for installation. According to the temperature requirements and usage frequencies of different parts of the hyperbaric chamber body 17, insulating panels (the top plate insulating panel 10, the side plate insulating panel 11, the back plate insulating panel 12, the door plate insulating panel 13, the window plate insulating panel 14, the bottom plate insulating panel 15) with specific performances (such as different heat insulation coefficients) or thicknesses can be selected for installation. For example, for parts with large temperature changes (such as the parts near the doors and windows, because the areas near the doors and windows are relatively more easily affected by the external temperature) or high usage frequencies, insulating panels with better heat insulation performance and greater thickness can be selected, while for relatively stable or less used parts, thinner or slightly less performant insulating panels can be selected to achieve the optimal allocation of resources.

[0051] Refer to Figures 4-5 , grid meshes are provided on the opposite sides of each top cover plate 1 and bottom tray plate 2, and the grid meshes are used to improve the rigidity and anti-deformation ability of the hyperbaric chamber body 17.

[0052] The setting of the grid meshes significantly improves the rigidity of the top cover plate 1 and the bottom tray plate 2, enables the top cover plate 1 and the bottom tray plate 2 to more effectively disperse the pressure they bear, reduces local stress concentration, and thus reduces the risk of structural damage. At the same time, the increased rigidity helps to maintain the stability of the overall shape of the hyperbaric chamber, ensures the regularity of the internal space, and provides a more reliable environment for equipment installation and personnel activities. In addition, the enhanced rigidity can also extend the service life of the top cover plate 1 and the bottom tray plate 2, reduce the damage and replacement frequency caused by long-term use or accidental impact, and reduce the maintenance cost.

[0053] Refer to Figures 6-7, inside one of the support frames 16 located on the front side, there is a door panel heat preservation board 13. Inside the door panel heat preservation board 13, there is a door frame cylinder surrounding sleeve 9. On the front side of the door frame cylinder surrounding sleeve 9, there is a left door panel 5. A plurality of mounting holes are opened around the outer side of the left door panel 5 for connecting with the support frame 16. A plurality of mounting holes are opened around the periphery of the door frame cylinder surrounding sleeve 9 near the bottom plate heat preservation board 15 and the inner periphery of the bottom plate heat preservation board 15. The door frame cylinder surrounding sleeve 9 and the bottom plate heat preservation board 15 are connected by a plurality of bolts. Inside the other support frame 16 located on the front side, there is a window panel heat preservation board 14. Inside the window panel heat preservation board 14, there is a window cylinder surrounding sleeve 8. On the front side of the window cylinder surrounding sleeve 8, there is a right window panel 6. On the front side of the right window panel 6, there is a window lintel board 7. A plurality of mounting holes are opened around the right window panel 6, the window lintel board 7 and the window cylinder surrounding sleeve 8. The right window panel 6 is connected with the support frame 16 by bolts, and the right window panel 6 is connected with the window lintel board 7 and the window cylinder surrounding sleeve 8 by threads.

[0054] In the two support frames 16 on the front side, a door panel heat preservation board 13 and a window panel heat preservation board 14 are respectively arranged, and components such as a door frame cylinder surrounding sleeve 9, a left door panel 5, a window cylinder surrounding sleeve 8, a right window panel 6, and a window lintel board 7 are configured at corresponding positions. These components are fixed on the support frame 16 and the heat preservation board through the opened mounting holes and connection methods such as bolts and threads, forming a complete front-side structure, realizing the functions of heat preservation, enclosure, and functional partition. The settings of the left door panel 5 and the right window panel 6 realize the functional distinction of the access passage and the observation window, meeting the use requirements of the oxygen chamber.

[0055] Working principle: A plurality of support frames 16 made of high-strength composite materials are connected pairwise by bolts to form six plates of the oxygen chamber body 17. The outer sides of the plates are installed with a top cover plate 1, a bottom tray plate 2, a rear vertical plate 4, and side vertical plates 3 by bolts, and corresponding heat preservation boards such as a top plate heat preservation board 10, side vertical plate heat preservation boards 11, a rear plate heat preservation board 12, and a bottom plate heat preservation board 15 are arranged in the support frames 16 at the top, both sides, the rear side, and the bottom to enhance the heat preservation performance. The grid meshes arranged on the opposite sides of each top cover plate 1 and bottom tray plate 2 improve the rigidity and anti-deformation ability of the oxygen chamber body 17. A door panel heat preservation board 13 and a window panel heat preservation board 14 are respectively arranged in the two support frames 16 on the front side, and components such as a door frame cylinder surrounding sleeve 9, a left door panel 5, a window cylinder surrounding sleeve 8, a right window panel 6, and a window lintel board 7 are configured, and are fixed through the mounting holes and bolt connection methods to form a complete front-side structure, realizing the functional distinction of the access passage and the observation window. The overall modular design enables the oxygen chamber body 17 to be disassembled during transportation and storage, and can be simply spliced and assembled on-site, which is convenient and flexible and meets different requirements.

[0056] The above are only the preferred specific embodiments of the present invention, but the protection scope of the present invention is not limited thereto. Any person skilled in the art within the technical scope disclosed by the present invention, according to the technical solution of the present invention and its inventive concept, makes equivalent substitutions or changes, and should be covered within the protection scope of the present invention.

Claims

1. A combined hyperbaric oxygen chamber, characterized in that: include: A top cover plate (1) and an oxygen chamber body (17), wherein the top cover plate (1) is a component of an outer shell of the oxygen chamber body (17), the cross section of the oxygen chamber body (17) is square, the oxygen chamber body (17) is hollow, the top cover plate (1) is located at the top of the oxygen chamber body (17), and the number of the top cover plates (1) is set to two; A support frame (16), the support frame (16) serving as a pressure-bearing and mounting carrier, is made of a high-strength composite material, and is provided in multiple numbers. A group of mounting holes is provided at multiple ends of each support frame (16), and the number of mounting holes in each group is provided in multiple numbers. Multiple support frames (16) are fixed in each group of mounting holes by bolts.

2. A combined hyperbaric oxygen chamber according to claim 1, characterized in that: Every two of the support frames (16) are connected by bolts to form a panel surface of the oxygen chamber body (17), and there are six such panels in total. An air conditioning component (18) is provided inside the oxygen chamber body (17).

3. A combined hyperbaric oxygen chamber according to claim 1, characterized in that: The outer sides of the plurality of panel surfaces are each provided with two top cover panels (1), two bottom tray panels (2), two back upright panels (4) and a plurality of side upright panels (3); each of the top cover panels (1), bottom tray panels (2), side upright panels (3) and back upright panels (4) is provided with a plurality of mounting holes around its periphery; and each two of the top cover panels (1), bottom tray panels (2), side upright panels (3) and back upright panels (4) are connected by bolts.

4. A combined hyperbaric oxygen chamber according to claim 3, characterized in that: A top plate insulation plate (10) is provided on the inner side of the two support frames (16) located at the top, and the two top cover plates (1) are respectively located above the corresponding top plate insulation plates (10), and the two top cover plates (1) are respectively connected to the corresponding support frames (16) by bolts.

5. A combined hyperbaric oxygen chamber according to claim 3, characterized in that: The two support frames (16) located on both sides are each provided with a side vertical plate insulation plate (11) inside, and each two side vertical plates (3) are respectively located on the outside of the corresponding side vertical plate insulation plate (11), and the plurality of side vertical plates (3) are respectively connected to the corresponding support frame (16) by bolts.

6. A combined hyperbaric oxygen chamber according to claim 3, characterized in that: The two support frames (16) located at the rear side are each provided with a backboard insulation board (12) therein, the two back side upright boards (4) are located at the rear side of the backboard insulation board (12), and the two back side upright boards (4) are respectively connected to the corresponding support frames (16) by bolts.

7. A combined hyperbaric oxygen chamber according to claim 3, characterized in that: The two support frames (16) located at the bottom are each provided with a bottom plate insulation plate (15) inside, the two bottom plate trays (2) are located at the bottom of the bottom plate insulation plate (15), and the two bottom plate trays (2) are respectively connected to the corresponding support frames (16) by bolts.

8. A combined hyperbaric oxygen chamber according to claim 3, characterized in that: A grid grid is provided on one side of each of the top cover plate (1) and the bottom tray plate (2) facing each other, and the grid grid is used to improve the rigidity and anti-deformation capability of the oxygen chamber body (17).

9. A combined hyperbaric oxygen chamber according to claim 1, characterized in that: A door panel insulation board (13) is arranged inside one of the support frames (16) located at the front side, a door frame tube rim sleeve (9) is arranged inside the door panel insulation board (13), a left door panel (5) is arranged on the front side of the door frame tube rim sleeve (9), a plurality of mounting holes are arranged around the outer side of the left door panel (5) for connecting with the support frame (16), a plurality of mounting holes are arranged around the door frame tube rim sleeve (9) near the bottom plate insulation board (15) and around the inner side of the bottom plate insulation board (15), and the door frame tube rim sleeve (9) is connected to the bottom plate insulation board (15) by a plurality of bolts.

10. The combined hyperbaric oxygen chamber according to claim 1, characterized in that: A window panel insulation board (14) is arranged inside the other support frame (16) located at the front side, a window tube rim sleeve (8) is arranged inside the window panel insulation board (14), a right window panel (6) is arranged on the front side of the window tube rim sleeve (8), a window eyebrow board (7) is arranged on the front side of the right window panel (6), a plurality of mounting holes are arranged around the right window panel (6), the window eyebrow board (7) and the window tube rim sleeve (8), the right window panel (6) is connected to the support frame (16) by bolts, and the right window panel (6) is connected to the window eyebrow board (7) and the window tube rim sleeve (8) by threads.

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