Flange profile assembled oxygen cabin

Abstract

The utility model discloses a flange section bar assembly type oxygen cabin which comprises a cabin door, pressure-bearing wall plates and a middle connecting beam frame, flange connecting parts are arranged on the pressure-bearing wall plates and the middle connecting beam frame, the adjacent pressure-bearing wall plates are fixedly connected through the flange connecting parts, the pressure-bearing wall plates are fixedly connected with the middle connecting beam frame through the flange connecting parts, and the pressure-bearing wall plates are fixedly connected with the middle connecting beam frame through the flange connecting parts. Strip-shaped sealing gaskets are arranged at the flange connecting positions between the adjacent connected pressure-bearing wall plates and the flange connecting positions between the pressure-bearing wall plates and the middle connecting beam frame. The pressure-bearing wall plate comprises an aluminum pipe set, a wall plate frame and an aluminum plate, the aluminum pipe set is arranged in the wall plate frame and welded in the wall plate frame, and the aluminum pipe set and the rear side face of the wall plate frame which are welded together are welded to the aluminum plate. The aluminum pipe set comprises a first aluminum square pipe and a second aluminum square pipe, and the first aluminum square pipe and the second aluminum square pipe are welded in a star shape. The pressure bearing capacity and the rigidity of the oxygen cabin are improved, the sense of safety of a user can be improved, and the excellent sealing performance of the oxygen cabin is guaranteed.

Description

Technical Field

[0001] The utility model belongs to the technical field of oxygen chambers, and in particular relates to a flange profile assembled type oxygen chamber. Background Art

[0002] Traditional oxygen chambers, namely low-pressure oxygen chambers, are widely used in the medical and beauty fields because of their ability to provide high-concentration oxygen. However, with the development of science and technology and people's increasing demand for health, low-pressure oxygen chambers have gradually exposed their limitations. In a low-pressure environment, the oxygen supply speed is slow and cannot quickly penetrate into the body's cells, limiting the effect of oxygen therapy. Hyperbaric oxygen chambers, with their characteristic of providing high-concentration oxygen under high-pressure conditions, are considered a powerful weapon for eliminating aging cells in the body. In a high-pressure environment, oxygen can quickly penetrate into cells, restart the body's vitality, and help eliminate the body's decayed cells. Therefore, hyperbaric oxygen chambers are known as "time beads" and have broad application prospects.

[0003] Most of the oxygen chambers currently available on the market are medical hyperbaric oxygen chambers and civilian micro-pressure oxygen chambers, both of which have their own advantages and disadvantages. Medical hyperbaric oxygen chambers have a higher pressure value and are suitable for the treatment of critically ill patients and clinical diseases, which ordinary people will feel uncomfortable with. They are usually large chambers that can accommodate more than 6 people at the same time and occupy a large area. They also require appointments and queues, which is very troublesome and not very comfortable. Medical hyperbaric oxygen chambers are professional medical equipment with high operating difficulty. They can only be operated by certified medical staff at the operating table and inspected by certified maintenance personnel, and can only be purchased and used by medical institutions. However, the pressure of civilian micro-pressure oxygen chambers is relatively small, and ordinary people feel the most comfortable, safest, and most effective when using them; but they have no obvious effect on the treatment of critically ill patients.

[0004] In the prior art, a civilian hyperbaric oxygen chamber is designed by combining the advantages of medical hyperbaric oxygen chamber and civilian micro-pressure oxygen chamber; however, the civilian hyperbaric oxygen chamber in the prior art has the following problems: the oxygen chamber has weak pressure bearing capacity and poor rigidity, resulting in large deformation of the oxygen chamber after pressurization. The deformation visible to the naked eye will cause discomfort or even fear to the user; because the oxygen chamber belongs to a closed environment, it is easy to cause claustrophobia to the user. Therefore, in view of the above problems, it is urgent to develop a flange profile assembled oxygen chamber with strong pressure bearing capacity, good rigidity and suitable for civilian use. Utility Model Content

[0005] The utility model aims at the above problems, makes up for the deficiencies of the prior art, and provides a flange profile assembled oxygen cabin.

[0006] In order to achieve the above purpose, the utility model adopts the following technical solutions:

[0007] A flange profile assembled oxygen cabin comprises a cabin door, a pressure-bearing wall plate, and an intermediate connecting beam frame, wherein the cabin door and a plurality of pressure-bearing wall plates are connected together through the intermediate connecting beam frame to form a closed square cabin structure; flange connecting parts are arranged on the pressure-bearing wall plates and the intermediate connecting beam frame, adjacent pressure-bearing wall plates are fixedly connected through the flange connecting parts, the pressure-bearing wall plates and the intermediate connecting beam frame are fixedly connected through the flange connecting parts, and the flange connecting parts between adjacent connected pressure-bearing wall plates and the flange connecting parts between the pressure-bearing wall plates and the intermediate connecting beam frame are fixedly connected through the flange connecting parts. Strip sealing gaskets are provided at all the joints; the pressure-bearing wall panel includes an aluminum tube group, a wall panel frame and an aluminum plate, the aluminum tube group is provided in the wall panel frame, the aluminum tube group is welded in the wall panel frame, and the aluminum tube group welded together, the rear side of the wall panel frame and the aluminum plate are welded; the aluminum tube group includes a first aluminum square tube and a second aluminum square tube, the first aluminum square tube and the second aluminum square tube are welded in a cross-shaped pattern, the flange connection part on the pressure-bearing wall panel is provided around the wall panel frame, and the wall panel frame is welded by two wall panel wide side profiles and two wall panel long side profiles.

[0008] Furthermore, the intermediate connecting beam frame includes two intermediate cross beams each provided with a flange connection portion, and two intermediate vertical beams each provided with a flange connection portion, and the two intermediate cross beams and the two intermediate vertical beams are connected together through the flange connection portion to form an intermediate connecting beam frame with a square structure; an angle reinforcing connector is provided on the inner side of the connection between the intermediate cross beam and the intermediate vertical beam, and the angle reinforcing connector is fixed to the intermediate cross beam and the intermediate vertical beam by bolts; a strip sealing gasket is provided at the flange connection between the intermediate cross beam and the intermediate vertical beam.

[0009] Furthermore, matching grooves are arranged on the surfaces of the flange connection parts of two adjacent connected pressure-bearing wall panels, matching grooves are arranged on the surfaces of the flange connection parts of the middle connecting beam frame and the flange connection parts of the pressure-bearing wall panels connected to the middle connecting beam frame, and matching grooves are arranged on the surfaces of the flange connection parts of the middle cross beam and the flange connection parts of the middle vertical beam connected to the middle cross beam.

[0010] Furthermore, a door frame is provided on the outside of the cabin door, and a flange connection portion is provided on the door frame, which is sealed and connected with the flange connection portion on the pressure wall plate. A strip sealing gasket is provided at the connection between the flange connection portion of the door frame and the flange connection portion of the pressure wall plate. The door frame is welded by two wide-side profiles and two long-side profiles.

[0011] Furthermore, the pressure-bearing wall panel includes a first window pressure-bearing wall panel, a second window pressure-bearing wall panel, a third window pressure-bearing wall panel, a fourth window pressure-bearing wall panel, a display pressure-bearing wall panel, an interface pressure-bearing wall panel, a rear side pressure-bearing wall panel, a first top surface pressure-bearing wall panel, a second top surface pressure-bearing wall panel and two bottom surface pressure-bearing wall panels; a half cabin structure composed of a cabin door, a first top surface pressure-bearing wall panel, a second window pressure-bearing wall panel, a fourth window pressure-bearing wall panel, a display pressure-bearing wall panel and a bottom surface pressure-bearing wall panel is connected Connected to one side of the middle connecting beam frame; a half cabin structure plate composed of the second top pressure-bearing wall plate, the first window pressure-bearing wall plate, the third window pressure-bearing wall plate, the interface pressure-bearing wall plate, the rear side pressure-bearing wall plate and another bottom pressure-bearing wall plate is connected to the other side of the middle connecting beam frame; the first window pressure-bearing wall plate, the second window pressure-bearing wall plate, the third window pressure-bearing wall plate and the fourth window pressure-bearing wall plate are all provided with cabin windows, the display pressure-bearing wall plate is provided with a display, and the interface pressure-bearing wall plate is provided with an interface.

[0012] Furthermore, the hatch is hinged on the door frame, and a door seal is provided between the hatch and the door frame.

[0013] Furthermore, the cabin windows and cabin doors are made of plexiglass.

[0014] Furthermore, reinforcing support vertical beams are provided between the door frame and the display pressure-bearing wall plate, and between the interface pressure-bearing wall plate and the rear side pressure-bearing wall plate.

[0015] Compared with the prior art, the beneficial effects of the utility model are:

[0016] The flange profile assembled oxygen cabin provided by the utility model mainly comprises a cabin door, a pressure-bearing wall plate, and an intermediate connecting beam frame. Through the combination of the flange sealing connection form of the pressure-bearing wall plate and the intermediate connecting beam frame formed by the aviation aluminum profile, the flange connections between the adjacent connected pressure-bearing wall plates and the flange connections between the pressure-bearing wall plate and the intermediate connecting beam frame are all provided with strip sealing gaskets; after the cabin door, the pressure-bearing wall plate and the intermediate connecting beam frame are assembled, the oxygen cabin is subjected to a pressure test between 0-100kpa, and the deformation of the oxygen cabin is very small. As the pressure in the oxygen cabin increases, the connection form of the flange plus the strip sealing gasket between the pressure-bearing wall plates and between the pressure-bearing wall plate and the intermediate connecting beam frame ensures the excellent sealing performance of the oxygen cabin; during the pressurization process, the deformation is almost invisible to the naked eye, and the pressure-bearing capacity and rigidity of the oxygen cabin are improved, which can increase the user's sense of security.

[0017] In addition, the flange profile assembled oxygen chamber of the utility model has a simple manufacturing process, lighter overall weight, and convenient assembly and disassembly, which can be more suitable for users' oxygen therapy use at home. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1The utility model is a three-dimensional structural schematic diagram of a flange profile assembled oxygen cabin at one angle.

[0019] Figure 2 It is a three-dimensional structural schematic diagram of another angle of a flange profile assembled oxygen cabin of the utility model.

[0020] Figure 3 The utility model is a three-dimensional structural schematic diagram of a middle connecting beam frame of a flange profile assembled oxygen cabin.

[0021] Figure 4 The utility model is a schematic diagram of the cross-sectional structure of an intermediate connecting beam frame of a flange profile assembled oxygen cabin.

[0022] Figure 5 for Figure 4 Schematic diagram of the enlarged structure of part A.

[0023] Figure 6 The utility model is a schematic structural diagram of a pressure-bearing wall plate of a flange profile assembled oxygen cabin.

[0024] Figure 7 The utility model is a schematic diagram of the connection structure between the middle horizontal beam and the middle vertical beam of a flange profile assembled oxygen cabin.

[0025] Figure 8 The utility model is a schematic diagram of the connection structure between the rear side pressure-bearing wall plate and the third window wall plate of a flange profile assembled oxygen cabin.

[0026] Fig. 9 The utility model is a schematic diagram of the connection structure between the middle cross beam of the flange profile assembled oxygen cabin and the first top pressure-bearing wall plate and the second top pressure-bearing wall plate.

[0027] Fig.10 The utility model is a schematic diagram of the connection structure between the second middle vertical beam and the second top pressure-bearing wall plate of a flange profile assembled oxygen cabin.

[0028] Fig.11 The utility model is a structural schematic diagram of a door and a door frame of a flange profile assembled oxygen cabin in which a door seal is used to seal the door.

[0029] Markings in the figure: 1 is the cabin door; 2 is the door frame; 3 is the first top surface pressure-bearing wall panel; 4 is the second top surface pressure-bearing wall panel; 5 is the first window pressure-bearing wall panel; 6 is the second window pressure-bearing wall panel; 7 is the display pressure-bearing wall panel; 8 is the interface pressure-bearing wall panel; 9 is the rear side pressure-bearing wall panel; 10 is the third window pressure-bearing wall panel; 11 is the fourth window pressure-bearing wall panel; 12 is the middle cross beam; 13 is the middle vertical beam; 14 is the wall panel wide side profile; 15 is the wall panel long side profile; 16 is the first aluminum square tube; 17 is the hexagon socket head bolt; 18 is the flat washer; 19 is the hexagonal nut; 20 is the angle reinforcement connector; 21 is the strip sealing gasket; 22 is the door seal; 23 is the flange connection; 24 is the notch; 25 is the reinforcing support vertical beam; 26 is the second aluminum square tube. DETAILED DESCRIPTION

[0030] The following will be combined with the drawings in the embodiments of the utility model to clearly and completely describe the technical solutions in the embodiments of the utility model. Obviously, the described embodiments are only part of the embodiments of the utility model, not all of the embodiments. Based on the embodiments in the utility model, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the utility model.

[0031] Specifically, combined Figures 1 to 11As shown, the embodiment of the utility model provides a flange profile assembled oxygen cabin, including a cabin door 1, a pressure-bearing wall plate, and an intermediate connecting beam frame, through which the cabin door 1 and several pressure-bearing wall plates are connected together to form a closed square cabin structure; flange connecting parts 23 are arranged on the pressure-bearing wall plates and the intermediate connecting beam frame, and adjacent pressure-bearing wall plates are fixedly connected by the flange connecting parts 23, and the pressure-bearing wall plates and the intermediate connecting beam frame are fixedly connected by the flange connecting parts 23. Specifically, the flange connecting parts 23 between adjacent pressure-bearing wall plates and the flange connecting parts between the pressure-bearing wall plates and the intermediate connecting beam frame are fixedly connected by hexagon socket head bolts 17, flat washers 18, and hexagon nuts 19. 23 fixed connection; the flange connection between adjacent connected pressure-bearing wall panels and the flange connection between the pressure-bearing wall panel and the middle connecting beam frame are all provided with strip sealing gaskets 21; the pressure-bearing wall panel includes an aluminum tube group, a wall panel frame and an aluminum plate, an aluminum tube group is arranged in the wall panel frame, the aluminum tube group is welded in the wall panel frame, and the welded aluminum tube group, the rear side surface of the wall panel frame and the aluminum plate are welded together; the aluminum tube group includes a first aluminum square tube 16 and a second aluminum square tube 26, the first aluminum square tube 16 and the second aluminum square tube 26 are welded in a cross-shaped pattern, the flange connection part 23 on the pressure-bearing wall panel is arranged around the wall panel frame, and the wall panel frame is welded by two wall panel wide side profiles 14 and two wall panel long side profiles 15. Compared with the thick wall structure in the past, the structural setting of the pressure-bearing wall plate of the utility model not only saves material usage, but also increases the compressive strength; wherein, the first aluminum square tube 16 is a short aluminum rectangular tube, and the second aluminum square tube 26 is a long aluminum rectangular tube; the M-shaped welding structure of the short aluminum rectangular tube and the long aluminum rectangular tube can be specifically referred to Figure 6 This type of pressure-bearing wallboard with a M-shaped structure can make the overall pressure-bearing and pressure-resistant effect of the pressure-bearing wallboard better, and the maximum pressure resistance can reach more than 100kpa. The wallboard wide side profile 14 and the wallboard long side profile 15 constituting the wallboard frame are both made of aviation aluminum profiles.

[0032] Specifically, the intermediate connecting beam frame includes two intermediate cross beams 12 each provided with a flange connection portion 23, and two intermediate vertical beams 13 each provided with a flange connection portion 23. The two intermediate cross beams 12 and the two intermediate vertical beams 13 are connected together through the flange connection portion 23 to form an intermediate connecting beam frame with a square structure; an angular reinforcing connector 20 is provided on the inner side of the connection between the intermediate cross beam 12 and the intermediate vertical beam 13, and the angular reinforcing connector 20 is fixed to the intermediate cross beam 12 and the intermediate vertical beam 13 through a hexagon socket head bolt 17; a strip sealing gasket 21 is provided at the flange connection between the intermediate cross beam 12 and the intermediate vertical beam 13.

[0033] Specifically, grooves 24 that can match with each other are arranged on the surfaces of the flange connection parts 23 of two adjacent pressure-bearing wall panels, grooves 24 that can match with each other are arranged on the surfaces of the flange connection parts 23 of the middle connecting beam frame and the flange connection parts 23 of the pressure-bearing wall panels connected to the middle connecting beam frame, grooves 24 that can match with each other are arranged on the surfaces of the flange connection parts 23 of the middle cross beam 12 and the flange connection parts 23 of the middle vertical beam 13 connected to the middle cross beam 12; by setting the grooves 24, the sealing performance between the pressure-bearing wall panels of the oxygen chamber and between the pressure-bearing wall panels and the middle connecting beam frames can be enhanced.

[0034] Specifically, a door frame 2 is provided on the outside of the hatch 1, and a flange connection part 23 is provided on the door frame 2 to be sealed with a flange connection part 23 on the pressure-bearing wall plate, and a strip sealing gasket 21 is provided at the connection between the flange connection part 23 of the door frame 2 and the flange connection part 23 of the pressure-bearing wall plate, and the door frame 2 is welded by two wide-side profiles and two long-side profiles. Specifically, the hatch 1 is hinged on the door frame 2, and a door seal 22 is provided between the hatch 1 and the door frame 2 to seal the hatch 1.

[0035] Specifically, the pressure-bearing wall panel includes a first window pressure-bearing wall panel 5, a second window pressure-bearing wall panel 6, a third window pressure-bearing wall panel 10, a fourth window pressure-bearing wall panel 11, a display pressure-bearing wall panel 7, an interface pressure-bearing wall panel 8, a rear side pressure-bearing wall panel 9, a first top surface pressure-bearing wall panel 3, a second top surface pressure-bearing wall panel 4 and two bottom surface pressure-bearing wall panels; a half cabin structure consisting of a cabin door 1, a first top surface pressure-bearing wall panel 3, a second window pressure-bearing wall panel 6, a fourth window pressure-bearing wall panel 11, a display pressure-bearing wall panel 7 and a bottom surface pressure-bearing wall panel The structure is connected to one side of the middle connecting beam frame; a half cabin structure plate composed of the second top pressure-bearing wall panel 4, the first window pressure-bearing wall panel 5, the third window pressure-bearing wall panel 10, the interface pressure-bearing wall panel 8, the rear side pressure-bearing wall panel 9 and another bottom pressure-bearing wall panel is connected to the other side of the middle connecting beam frame; the first window pressure-bearing wall panel 5, the second window pressure-bearing wall panel 6, the third window pressure-bearing wall panel 10 and the fourth window pressure-bearing wall panel 11 are all provided with cabin windows, the display pressure-bearing wall panel 7 is provided with a display, and the interface pressure-bearing wall panel 8 is provided with an interface.

[0036] Specifically, the cabin window is made of organic glass, and the cabin door 1 is made of a transparent organic glass door panel, which can meet the requirements of the medical oxygen cabin for the materials of the cabin window and the cabin door 1. The number of cabin windows can be selected according to the customer's requirements for cabin brightness. The cabin window and the first window pressure-bearing wall plate 5, the second window pressure-bearing wall plate 6, the third window pressure-bearing wall plate 10, and the fourth window pressure-bearing wall plate 11 are sealed and fixedly installed using sealing strips.

[0037] In the present invention, reinforcing support vertical beams 25 are arranged between the door frame 2 and the display pressure-bearing wall plate 7, and between the interface pressure-bearing wall plate 8 and the rear side pressure-bearing wall plate 9, so that the overall pressure resistance and deformation resistance of the oxygen cabin are stronger and the rigidity is stronger.

[0038] The utility model connects the hatch 1 and several pressure-bearing wall panels together through an intermediate connecting beam frame to form a closed square cabin structure. The structure of each pressure-bearing wall panel is welded by an aluminum tube group, a wall panel frame and an aluminum plate. After welding, the airtightness requirement can be met. The deformation and flatness of the pressure-bearing wall panel can be controlled within 1 mm, which greatly enhances the overall anti-deformation ability of the oxygen cabin. In addition, adjacent pressure-bearing wall panels are fixedly connected by flange connecting parts 23, and the pressure-bearing wall panels and the intermediate connecting beam frame are fixedly connected by flange connecting parts 23. The flange connection between the adjacent connected pressure-bearing wall panels and the pressure-bearing wall panels is fixedly connected to each other through the flange connecting parts 23. The flange connection between the pressure wall plate and the middle connecting beam frame is provided with a strip sealing gasket 21. After the hatch 1, the pressure wall plate and the middle connecting beam frame are assembled, the oxygen cabin is subjected to a pressure test. The deformation between 0-100kpa is very small. As the pressure in the oxygen cabin increases, the connection form of the flange and the strip sealing gasket 21 between the pressure wall plates and between the pressure wall plates and the middle connecting beam frame ensures the excellent sealing performance of the oxygen cabin. The setting of the notch 24 can enhance the sealing performance between the pressure wall plates and between the pressure wall plates and the middle connecting beam frame of the oxygen cabin of the utility model. The strip sealing gasket 21 can be made of rubber or silicone. The deformation is almost invisible to the naked eye during the pressurization process, which can increase the user's sense of security.

[0039] The oxygen chamber of the utility model is a confined space as a whole. For some users, they may have a fear of confined spaces, and experience anxiety, panic, rapid breathing, accelerated heartbeat, blushing and sweating. In severe cases, they may suffocate, feel dizzy, or even feel near death. Therefore, in order to cope with this phenomenon, the oxygen chamber of the utility model adopts a transparent cabin door 1 and is equipped with a transparent cabin window, so that people outside the cabin can observe the situation of the users in the cabin in real time, giving the users a sufficient sense of security. In addition, the number of cabin windows can be customized according to the user's requirements for the cabin environment, taking into account both safety and privacy requirements.

[0040] The flange profile assembled oxygen chamber provided by the utility model is a civilian hyperbaric oxygen chamber, which can not only have a therapeutic effect on critically ill patients, but also accept personalized customization. It is suitable for single, double, and multiple people, and can accommodate more users at one time. In addition, the flange profile assembled oxygen chamber of the utility model can be expanded: specifically, the oxygen chamber can be enlarged by increasing the number of intermediate connecting beam frames; or the oxygen chamber can be reduced by reducing the number of intermediate connecting beam frames.

[0041] Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art may still modify the technical solutions described in the aforementioned embodiments, or make equivalent substitutions for some of the technical features therein. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention shall be included in the protection scope of the present invention.

Claims

1. A flange profile assembled oxygen cabin, characterized in that: The invention comprises a hatch, a pressure-bearing wall plate, and an intermediate connecting beam frame, wherein the hatch and several pressure-bearing wall plates are connected together through the intermediate connecting beam frame to form a closed square cabin structure; flange connecting parts are arranged on the pressure-bearing wall plate and the intermediate connecting beam frame, adjacent pressure-bearing wall plates are fixedly connected through the flange connecting parts, the pressure-bearing wall plate and the intermediate connecting beam frame are fixedly connected through the flange connecting parts, and the flange connecting parts between adjacent connected pressure-bearing wall plates and between the pressure-bearing wall plate and the intermediate connecting beam frame are arranged There is a strip sealing gasket; the pressure-bearing wall panel includes an aluminum tube group, a wall panel frame and an aluminum plate, the aluminum tube group is arranged in the wall panel frame, the aluminum tube group is welded in the wall panel frame, and the aluminum tube group welded together, the rear side of the wall panel frame and the aluminum plate are welded; the aluminum tube group includes a first aluminum square tube and a second aluminum square tube, the first aluminum square tube and the second aluminum square tube are welded in a cross shape, the flange connection part on the pressure-bearing wall panel is arranged around the wall panel frame, and the wall panel frame is welded by two wall panel wide side profiles and two wall panel long side profiles.

2. The flange profile assembled oxygen cabin according to claim 1, characterized in that: The intermediate connecting beam frame includes two intermediate cross beams each provided with a flange connection part and two intermediate vertical beams each provided with a flange connection part. The two intermediate cross beams and the two intermediate vertical beams are connected together through the flange connection part to form an intermediate connecting beam frame with a square structure. An angle reinforcing connector is arranged on the inner side of the connection between the intermediate cross beam and the intermediate vertical beam, and the angle reinforcing connector is fixed to the intermediate cross beam and the intermediate vertical beam by bolts. A strip sealing gasket is arranged at the flange connection between the intermediate cross beam and the intermediate vertical beam.

3. The flange profile assembled oxygen cabin according to claim 2, characterized in that: The surfaces of the flange connection parts of two adjacent pressure-bearing wall panels are provided with matching grooves, the surfaces of the flange connection parts of the middle connecting beam frame and the surfaces of the flange connection parts of the pressure-bearing wall panels connected to the middle connecting beam frame are provided with matching grooves, and the surfaces of the flange connection parts of the middle cross beam and the surfaces of the flange connection parts of the middle vertical beam connected to the middle cross beam are provided with matching grooves.

4. The flange profile assembled oxygen cabin according to claim 1, characterized in that: A door frame is arranged on the outside of the cabin door, and a flange connection part is arranged on the door frame, which is sealed and connected with the flange connection part on the pressure-bearing wall plate. A strip sealing gasket is arranged at the connection between the flange connection part of the door frame and the flange connection part of the pressure-bearing wall plate. The door frame is formed by welding two wide-side profiles and two long-side profiles.

5. The flange profile assembled oxygen cabin according to claim 4, characterized in that: The pressure-bearing wall panels include a first window pressure-bearing wall panel, a second window pressure-bearing wall panel, a third window pressure-bearing wall panel, a fourth window pressure-bearing wall panel, a display pressure-bearing wall panel, an interface pressure-bearing wall panel, a rear side pressure-bearing wall panel, a first top surface pressure-bearing wall panel, a second top surface pressure-bearing wall panel and two bottom surface pressure-bearing wall panels; a half cabin structure consisting of a cabin door, a first top surface pressure-bearing wall panel, a second window pressure-bearing wall panel, a fourth window pressure-bearing wall panel, a display pressure-bearing wall panel and a bottom surface pressure-bearing wall panel is connected to one side of the middle connecting beam frame; a half cabin structure panel consisting of a second top surface pressure-bearing wall panel, a first window pressure-bearing wall panel, a third window pressure-bearing wall panel, an interface pressure-bearing wall panel, a rear side pressure-bearing wall panel and another bottom surface pressure-bearing wall panel is connected to the other side of the middle connecting beam frame; cabin windows are provided on the first window pressure-bearing wall panel, the second window pressure-bearing wall panel, the third window pressure-bearing wall panel and the fourth window pressure-bearing wall panel, a display is provided on the display pressure-bearing wall panel, and an interface is provided on the interface pressure-bearing wall panel.

6. The flange profile assembled oxygen cabin according to claim 4, characterized in that: The hatch is hinged on the door frame, and a door seal is arranged between the hatch and the door frame.

7. The flange profile assembled oxygen cabin according to claim 5, characterized in that: The cabin windows and cabin doors are made of plexiglass.

8. The flange profile assembled oxygen cabin according to claim 5, characterized in that: Reinforced support vertical beams are arranged between the door frame and the display pressure-bearing wall plate, and between the interface pressure-bearing wall plate and the rear side pressure-bearing wall plate.

Images