A new type of hyperbaric oxygen chamber

Abstract

The utility model provides a new type of hyperbaric oxygen chamber, which includes a flexible cabin, a control device, a rigid cabin door and an internal support device. Through the design of the flexible cabin and the setting of the internal support device, the hyperbaric oxygen chamber can form a vertical cylindrical structure and provide sufficient space for users to use. The overall structure is portable and the opening is convenient for users to enter and exit the hyperbaric oxygen chamber. The setting of the internal and external support devices can stabilize and support the interior of the flexible cabin, providing users with a sense of comfort in the hyperbaric oxygen chamber. Compared with the sealed cabin with a zipper structure, the connection between the rigid cabin door and the flexible cabin body adopts a bonding and then hot pressing method to ensure the sealing performance of the cabin door. The hinge and buckle design of the door body make the opening and closing of the cabin door more convenient. The sealing design of the rigid cabin door can ensure that the air pressure in the flexible cabin will not leak, thereby effectively maintaining the concentration of high-pressure oxygen in the cabin. The control device is connected to the oxygen production equipment to realize the control and regulation of the oxygen content in the cabin.

Description

Technical Field

[0001] The utility model relates to the field of oxygen chambers, in particular to a novel hyperbaric oxygen chamber. Background Art

[0002] The hyperbaric oxygen chamber is a special medical device for hyperbaric oxygen therapy, usually composed of a cabin, an exhaust (oxygen) supply and exhaust system, an air conditioning system and a control system.

[0003] The existing hyperbaric oxygen chamber is a soft horizontal structure, and the door of the chamber is a zipper structure. The oxygen chamber with a soft body and a soft door needs to be supported by the high-pressure gas in the chamber during use. If there is not enough gas inside, the chamber will collapse. Users can easily trip when entering and exiting the oxygen chamber, causing safety problems. In addition, the zipper structure of the door makes it even more inconvenient to use.

[0004] Therefore, it is necessary to provide a novel hyperbaric oxygen chamber to solve the above-mentioned technical problems. Utility Model Content

[0005] The utility model provides a novel hyperbaric oxygen chamber to solve the problem that the hyperbaric oxygen chamber in the prior art is a horizontal structure and the door of the chamber body is a zipper structure, which makes it easy for users to trip when entering and exiting the oxygen chamber and is not conducive to use.

[0006] In order to solve the above technical problems, the technical solution of the utility model is: a new type of hyperbaric oxygen chamber, which includes:

[0007] The flexible cabin is a vertical cylindrical structure, and an opening is provided on one side of the flexible cabin;

[0008] An inner support device, disposed in the flexible cabin, for supporting the interior of the flexible cabin so that the flexible cabin forms a vertical cylindrical structure;

[0009] a rigid door connected to the flexible cabin, the rigid door being used to seal the opening; and

[0010] A control device connected to the flexible cabin, the control device being used to connect to the oxygen production equipment;

[0011] The rigid door comprises:

[0012] An outer door frame, bonded to the outer side of the flexible cabin;

[0013] An inner door frame bonded to the inner wall of the flexible cabin; and

[0014] The door body has one side hinged to one side of the inner door frame and the other side snap-connected to the other side of the inner door frame;

[0015] Wherein, the outer door frame, the inner door frame and the flexible cabin are an integral structure formed by hot pressing.

[0016] In the present utility model, the inner support device comprises:

[0017] An inner bracket is a vertically arranged rectangular structure, wherein two groups of inner brackets are provided, and the two groups of inner brackets are arranged oppositely in the flexible cabin, the top end of the inner bracket is connected to the top end of the flexible cabin, and the bottom end of the inner bracket is connected to the bottom end of the flexible cabin; and

[0018] The inner support connecting plate is connected to the flexible cabin, and the two ends of the inner support connecting plate are respectively connected to the two groups of inner brackets.

[0019] In the present utility model, the inner bracket comprises:

[0020] A first support rod, located at the bottom end of the inner bracket, the first support rod is transversely arranged in the flexible cabin, and the first support rod supports the bottom end of the flexible cabin;

[0021] A second support rod, located at the top of the inner bracket, the second support rod is transversely arranged on the top of the flexible cabin, the second support rod supports the top of the flexible cabin, and the second support rod is parallel to the first support rod; and

[0022] A first rod assembly is vertically disposed at one side of the flexible cabin, the first rod assembly connects one end of a first support rod and one end of a second support rod, and the second support rod supports one side of the flexible cabin; and

[0023] The second rod assembly is vertically arranged at the other side of the flexible cabin, and the second rod assembly connects the other end of the first support rod and the other end of the second support rod, and the second support rod supports the other side of the flexible cabin.

[0024] The novel hyperbaric oxygen chamber of the utility model further comprises an external support device, wherein the external support device comprises a gravity bottom plate, wherein the gravity bottom plate is connected to the bottom end of the flexible chamber body, and the gravity bottom plate is used to lower the center of gravity of the hyperbaric oxygen chamber.

[0025] In the present utility model, the external support device further comprises:

[0026] A top plate, arranged on the top of the flexible cabin; and

[0027] The third rod assembly is vertically arranged outside the flexible cabin, the top end of the third rod assembly is connected to the top plate, and the bottom end of the third rod assembly is connected to the gravity bottom plate.

[0028] In the utility model, the novel hyperbaric oxygen chamber also includes a link bar, one end of which is connected to the top of the flexible chamber body, and the other end of which is used to connect to the wall to further stabilize the center of gravity of the oxygen chamber.

[0029] In the utility model, the novel hyperbaric oxygen chamber further comprises a seat device, wherein the seat device is located in the flexible chamber body and is used to support the user.

[0030] In the present utility model, the seat device comprises:

[0031] A seat bracket, disposed in the flexible cabin;

[0032] A seat is arranged on the seat support, the seat is used to support a user, and the seat comprises:

[0033] a support plate, disposed on the seat bracket, wherein a plane where the support plate is located is lower than a plane where a bottom surface of the rigid door is located; and

[0034] The backrest board, the bottom end of which is connected to the support board away from the hard door. The seat device has a backrest, which is convenient for use, and the support board is lower than the hard door, with a compact structure, so that the hard door can be opened.

[0035] In the utility model, the movement track of the door body includes a first working position and a second working position.

[0036] When the door body is located at the first working position, the door body seals the opening;

[0037] When the door body is located at the second working position, the door body is located in the flexible cabin, and the user can enter and exit the flexible cabin. The seat cushion improves the comfort of the seat.

[0038] In the present invention, the control device includes an internal control box, which is arranged in a flexible cabin and connected to the oxygen production equipment; an internal control box bracket is also arranged inside the flexible cabin, and the internal control box bracket includes:

[0039] A fixing plate, disposed in the flexible cabin and connected to the bottom end of the flexible cabin; and

[0040] The extension plate has one end connected to one side of the fixing plate, and the other end is bent and extends upward along the inner wall of the flexible cabin, and the internal control box is arranged on the extension plate. The internal control box is supported by a control box bracket, and the fixing plate is located below the seat device and is extended and assembled through the extension plate, so the structure is compact.

[0041] In the utility model, the outer support device further comprises an anti-skid rubber pad, and the anti-skid rubber pad is connected to the bottom surface of the gravity bottom plate, thereby improving the stability of the overall oxygen chamber structure.

[0042] Compared with the prior art, the utility model has the following beneficial effects: the new hyperbaric oxygen chamber of the utility model can form a vertical cylindrical structure through the flexible cabin design in conjunction with the setting of the external support device and the internal support device, and provides sufficient space for users to use. The overall structure is portable, and the opening is convenient for users to enter and exit the hyperbaric oxygen chamber. The setting of the internal support device can stabilize and support the interior of the flexible cabin, providing users with a sense of comfort in the hyperbaric oxygen chamber. Compared with the sealed cabin with a zipper structure, the connection between the rigid cabin door and the flexible cabin body is bonded and then hot-pressed to ensure the sealing performance of the cabin door. The hinge and buckle design of the door body make the opening and closing of the cabin door more convenient. The sealing design of the rigid cabin door can ensure that the air pressure in the flexible cabin will not leak, thereby effectively maintaining the concentration of high-pressure oxygen in the cabin. The control device is connected to the oxygen production equipment, which can realize the control and adjustment of the oxygen content in the cabin to meet the needs of users. BRIEF DESCRIPTION OF THE DRAWINGS

[0043] In order to more clearly illustrate the embodiments of the utility model or the technical solutions in the prior art, the following briefly introduces the drawings required for use in the embodiments. The drawings described below are only drawings corresponding to some embodiments of the utility model.

[0044] Figure 1 It is a structural schematic diagram of a preferred embodiment of the novel hyperbaric oxygen chamber of the utility model.

[0045] Figure 2 It is an exploded view of the overall structure of a preferred embodiment of the novel hyperbaric oxygen chamber of the utility model.

[0046] Figure 3 It is a cross-sectional view of a preferred embodiment of the novel hyperbaric oxygen chamber of the present utility model.

[0047] Figure numerals: 11, flexible cabin; 111, opening; 12, inner support device; 121, inner bracket; 1211, first support rod; 1212, second support rod; 1213, first rod assembly; 1214, second rod assembly; 122, inner support connecting plate; 13, hard cabin door; 131, outer door frame; 132, inner door frame; 133, door body; 134, silicone sealing ring; 14, control device; 141, internal control Box; 142, internal control box bracket; 1421, fixing plate; 1422, extension plate; 15, external support device; 151, gravity bottom plate; 152, top plate; 153, third rod assembly; 154, anti-slip rubber pad; 16, seat device; 161, seat bracket; 162, seat; 1621, support plate; 1622, backrest plate; 1623, cushion; 17, connecting strip; 171, adjustment slot; 18, oxygen generator. DETAILED DESCRIPTION

[0048] 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 of the utility model, all other embodiments obtained by those skilled in the art without creative work are within the scope of protection of the utility model.

[0049] Directional terms mentioned in the present invention, such as "up", "down", "front", "back", "left", "right", "inside", "outside", "side", "top" and "bottom", are only used for reference to the directions of the drawings. The directional terms used are used to illustrate and understand the present invention, and are not used to limit the present invention.

[0050] The words "first", "second" and the like in the terminology of the present invention are used for descriptive purposes only and should not be understood as indicating or implying relative importance, and should not be construed as limiting the order of precedence.

[0051] In the present invention, unless otherwise clearly specified and limited, the terms "install", "connect", "connect", "fix" and the like should be understood in a broad sense, for example, it can be a fixed connection, a detachable connection, or an integral connection; it can be a mechanical connection or an electrical connection; it can be a direct connection or an indirect connection through an intermediate medium, it can be the internal connection of two elements or the interaction relationship between two elements. For ordinary technicians in this field, the specific meanings of the above terms in the present invention can be understood according to specific circumstances.

[0052] The following is a preferred embodiment of a novel hyperbaric oxygen chamber provided by the present invention that can solve the above technical problems.

[0053] Please refer to Figure 1 and Figure 2 ,in Figure 1 This is a schematic structural diagram of a preferred embodiment of the novel hyperbaric oxygen chamber of the utility model. Figure 2 It is an exploded view of the overall structure of a preferred embodiment of the novel hyperbaric oxygen chamber of the utility model.

[0054] In the figures, structurally similar elements are denoted by the same reference numerals.

[0055] The utility model provides a novel hyperbaric oxygen chamber, which comprises a flexible cabin body 11, a control device 14, a hard cabin door 13, and an inner support device 12; the flexible cabin body 11 is a vertical cylindrical structure, and an opening 111 is arranged on one side of the flexible cabin body 11; the inner support device 12 is arranged in the flexible cabin body 11, and the inner support device 12 is used to support the inside of the flexible cabin body 11, so that the flexible cabin body 11 forms a vertical cylindrical structure; the hard cabin door 13 is connected to the flexible cabin body 11, and the hard cabin door 13 is used to seal the opening 111; the control device 14 is connected to the flexible cabin body 11, and the control device 14 is used to connect the oxygen production equipment 18. The rigid cabin door 13 includes an outer door frame 131, an inner door frame 132 and a door body 133. The outer door frame 131 is bonded to the outer side of the flexible cabin body 11; the inner door frame 132 is bonded to the inner wall of the flexible cabin body 11; one side of the door body 133 is hinged to one side of the inner door frame 132, and the other side is snap-connected to the other side of the inner door frame 132; wherein the outer door frame 131, the inner door frame 132 and the flexible cabin body 11 are an integrated structure formed by hot pressing.

[0056] The new hyperbaric oxygen chamber in this embodiment is designed with a flexible cabin 11 and an internal support device 12, so that the hyperbaric oxygen chamber can form a vertical cylindrical structure, providing enough space for users to use. The overall structure is portable, and the opening 111 is convenient for users to enter and exit the hyperbaric oxygen chamber. The setting of the internal support device 12 ensures the structural stability of the flexible cabin 11. The control device 14 is connected to the oxygen generator 18, which can realize the control and adjustment of the oxygen content in the cabin to meet the needs of users. Compared with the sealed cabin with a zipper structure, the connection between the rigid cabin door 13 and the flexible cabin 11 adopts an adhesive method to ensure the sealing performance of the cabin door. The hinge and buckle design of the door body 133 make the opening and closing of the cabin door more convenient. The sealing design of the rigid cabin door 13 can ensure that the air pressure in the flexible cabin 11 will not leak, thereby effectively maintaining the concentration of high-pressure oxygen in the cabin. The outer door frame 131, the inner door frame 132 and the door body 133 constitute an integrated structure formed by hot pressing, which has high strength and durability and can withstand the pressure under high pressure environment. In the embodiment, the flexible cabin body 11 is glued between the inner door frame 132 and the outer door frame 131 and then hot-pressed, and can be assembled at a factory at one time, thereby improving the sealing of the overall structure of the oxygen cabin.

[0057] The inner support device 12 in this embodiment is described as follows:

[0058] Combination Figure 2 and Figure 3The inner support device 12 includes an inner support 121 and an inner support connecting plate 122; wherein the inner support 121 is a vertically arranged rectangular structure, and two groups of inner support 121 are arranged, and the two groups of inner support 121 are relatively arranged in the flexible cabin 11, and the top of the inner support 121 is connected to the top of the flexible cabin 11, and the bottom of the inner support 121 is connected to the bottom of the flexible cabin 11; the inner support connecting plate 122 is connected to the flexible cabin 11, and the two ends of the inner support connecting plate 122 are respectively connected to the two groups of inner support 121, thereby improving the stability of the inner support 121 arranged in the flexible cabin 11.

[0059] The inner bracket 121 includes a first support rod 1211, a second support rod 1212, a first rod assembly 1213 and a second rod assembly 1214; wherein the first support rod 1211 is located at the bottom end of the inner bracket 121, and the first support rod 1211 is transversely arranged in the flexible cabin 11, and the first support rod 1211 supports the bottom end of the flexible cabin 11; the second support rod 1212 is located at the top end of the inner bracket 121, and the second support rod 1212 is transversely arranged at the top end of the flexible cabin 11, and the second support rod 1212 supports the top end of the flexible cabin 11, and the second support rod 1212 is parallel to the first support rod 1211;

[0060] The first rod assembly 1213 is vertically arranged on one side inside the flexible cabin 11, and the first rod assembly 1213 connects one end of the first support rod 1211 and one end of the second support rod 1212, and the second support rod 1212 supports one side of the flexible cabin 11; the second rod assembly 1214 is vertically arranged on the other side inside the flexible cabin 11, and the second rod assembly 1214 connects the other end of the first support rod 1211 and the other end of the second support rod 1212, and the second support rod 1212 supports the other side of the flexible cabin 11.

[0061] The internal support device 12 in this embodiment supports the inside of the flexible cabin 11 to prevent collapse; wherein, by the provision of the first support rod 1211 and the second support rod 1212, the bottom and top of the flexible cabin 11 can be effectively supported, ensuring its vertical cylindrical structure and enhancing the overall stability. The provision of the first rod assembly 1213 and the second rod assembly 1214 further increases the stability of the internal support device 12. They connect the first support rod 1211 and the second support rod 1212 together, thereby ensuring that both sides of the flexible cabin 11 can also be supported. In summary, through the provision of the internal support device 12, the flexible cabin 11 of the hyperbaric oxygen chamber can maintain a stable vertical cylindrical structure, effectively support the bottom, top and both sides of the cabin, and improve the structural stability and safety of the entire cabin.

[0062] Other structures of the novel hyperbaric oxygen chamber in this embodiment are described as follows:

[0063] Combination Figure 1 The hyperbaric oxygen chamber in this embodiment also includes an external support device 15 to further improve the stability of the hyperbaric oxygen chamber during use.

[0064] The outer support device 15 in this embodiment includes a gravity bottom plate 151, a top plate 152 and a third rod assembly 153; the bottom end of the flexible cabin 11 is connected to the top surface of the gravity bottom plate 151, and the gravity bottom plate 151 is used to lower the center of gravity of the hyperbaric oxygen chamber. In order to enhance the safety and lower the center of gravity of the hyperbaric oxygen chamber in this embodiment, the gravity bottom plate 151 can be composed of several pieces of marble.

[0065] The top plate 152 is arranged at the top of the flexible cabin 11; the top plate 152 is arranged at the top of the flexible cabin 11, which can provide upper support and protection for the cabin and increase the overall rigidity and stability of the cabin. The arrangement of the top plate 152 can prevent the cabin from being deformed and damaged when an external force is applied to the top. The third rod assembly 153 is vertically arranged on the outside of the flexible cabin 11, the top end of the third rod assembly 153 is connected to the top plate 152, and the bottom end of the third rod assembly 153 is connected to the gravity bottom plate 151. The third rod assembly 153 can provide additional support and stability. The top end of the third rod assembly 153 is connected to the top plate 152, and the bottom end is connected to the gravity bottom plate 151, which can make the cabin more stable in the vertical direction. The arrangement of the rod assembly can increase the overall rigidity of the cabin and reduce the possibility of deformation and shaking.

[0066] The external support device 15 in this embodiment also includes a connecting bar 17, one end of the connecting bar 17 is connected to the top plate 152, and the other end of the connecting bar 17 is used to connect to the wall. After the oxygen chamber is placed against the wall, it can be fixed to the nearest wall through the connecting bar 17 to prevent tilting, thereby improving the stability of the overall structure of the oxygen chamber during use and further stabilizing the center of gravity of the oxygen chamber.

[0067] Furthermore, an adjustment slot 171 is provided on the link bar 17 in this embodiment, and the adjustment slot 171 is adjustably connected to the top plate 152, so as to facilitate the installation and fixation of the hyperbaric oxygen chamber.

[0068] In this embodiment, the outer support device 15 further includes an anti-skid rubber pad 154, which is connected to the bottom surface of the gravity bottom plate 151, thereby improving the stability of the hyperbaric oxygen chamber during use.

[0069] When the hyperbaric oxygen chamber is not in use, the external support device 15 can also keep the oxygen chamber in a certain aesthetic shape, so as not to collapse into a random debris shape and affect the aesthetics of the home.

[0070] The structure of the rigid hatch 13 in this embodiment is described in detail as follows:

[0071] Combination Figure 1 , Figure 3In this embodiment, the movement trajectory of the door body 133 includes a first working position and a second working position. When the door body 133 is in the first working position, the door body 133 seals the opening 111; when the door body 133 is in the second working position, the door body 133 is located in the flexible cabin 11, and the user can enter and exit the flexible cabin 11. The door body 133 opens to the inside of the hyperbaric oxygen chamber. During use, the pressure in the flexible cabin 11 can squeeze the hard door 13 to be in close contact with the inner wall of the flexible cabin 11, thereby improving the sealing of the overall structure of the hyperbaric oxygen chamber.

[0072] Further, such as Figure 3 As shown, the rigid hatch 13 in this embodiment further includes a silicone sealing ring 134, which is disposed on the inner side of the inner door frame 132 and is used to seal the inner door frame 132 and the door body 133 to ensure the sealing of the rigid hatch 13 when it is closed.

[0073] Combination Figure 2 and Figure 3 The hyperbaric oxygen chamber in this embodiment also includes a seat device 16. The setting of the seat device 16 can provide a space for the user to sit down and rest, thereby improving the user's comfort and use effect.

[0074] The seat device 16 in this embodiment includes a seat bracket 161 and a seat 162. The seat bracket 161 is arranged in the flexible cabin 11; the seat 162 is arranged on the seat bracket 161, and the seat 162 is used to support the user and improve the user's comfort during use.

[0075] The seat 162 includes a support plate 1621 and a backrest plate 1622. The support plate 1621 is arranged on the seat frame 161. The plane where the support plate 1621 is located is lower than the plane where the bottom surface of the rigid cabin door 13 is located, thereby ensuring the opening of the rigid cabin door 13, making the structural layout of the hyperbaric oxygen chamber compact, occupying a small volume, and easy to use; the bottom end of the backrest plate 1622 is connected to the side of the support plate 1621 away from the rigid cabin door 13, which is convenient for users to use.

[0076] The seat device 16 also includes a chair cushion 1623, which is placed on the seat 162 to improve the comfort of the user during use. The cushion 1623 includes a third working position and a fourth working position. When the cushion 1623 is located at the third working position, the cushion 1623 is flat on the support plate 1621, and the height of the plane where the top of the cushion 1623 is located is higher than the height of the bottom surface of the rigid cabin door 13, and the user can sit on the cushion 1623; when the cushion 1623 is located at the fourth working position, the cushion 1623 is vertically placed on the backrest board 1622, and the rigid cabin door 13 can be opened at this time. The opened rigid cabin door 13 is located above the support plate 1621.

[0077] The plane where the cushion 1623 at the third working position is located is roughly perpendicular to the plane where the cushion 1623 at the fourth working position is located. When the door is opened inward, the cushion 1623 on the chair is pulled up, and the chair is lower than the threshold of the flexible cabin 11, and the door can be opened; the rigid cabin door 13 is appropriately tilted, for example, the top of the rigid cabin door 13 is tilted toward the inside of the oxygen cabin, and as long as the door is opened, the door will rotate freely by gravity and open. This structural design not only improves the comfort of the hyperbaric oxygen chamber, but also makes full use of the internal space of the oxygen cabin.

[0078] The structure of the control device 14 in this embodiment is described as follows:

[0079] Combination Figure 2 and Figure 3 In this embodiment, the control device 14 includes an internal control box 141, which is arranged in the flexible cabin 11 and connected to the oxygen production equipment 18; the internal control box 141 is arranged in the flexible cabin 11, which makes it easier for the user to operate the control device 14 without leaving the flexible cabin 11 for adjustment and control.

[0080] An internal control box bracket 142 is also provided inside the flexible cabin 11. The internal control box bracket 142 includes a fixing plate 1421 and an extension plate 1422. The fixing plate 1421 is provided inside the flexible cabin 11 and is connected to the bottom end of the flexible cabin 11. The fixing plate 1421 in this embodiment is located below the seat device 16; one end of the extension plate 1422 is connected to one side of the fixing plate 1421, and the other end is bent and extends upward along the inner wall of the flexible cabin 11, and the internal control box 141 is provided on the extension plate 1422. The setting of the internal control box bracket 142, through the structure of the fixing plate 1421 and the extension plate 1422, fixes the internal control box 141 at a specific position inside the flexible cabin 11 to prevent the control box from swinging and moving; the fixing plate 1421 is connected to the bottom end of the flexible cabin 11. The fixing plate 1421 in this embodiment is positioned below the seat device 16, thereby preventing the seat device 16 from blocking the control device 14 and ensuring that the user can conveniently operate the control device 14 when sitting on the seat 162. The design of the extension plate 1422 enables the internal control box 141 to extend upward along the inner wall of the flexible cabin 11, making it convenient for the user to reach and operate the control device 14, thereby improving the user's convenience.

[0081] The method of using the novel hyperbaric oxygen chamber of this embodiment is as follows:

[0082] 1. The user first opens the hard door 13 to enter the hyperbaric oxygen chamber. An opening 111 is provided on one side of the flexible chamber 11 to facilitate the user to enter and leave the hyperbaric oxygen chamber.

[0083] 2. In the flexible cabin 11, the user can sit on the seat device 16 and adjust the posture that suits him / her.

[0084] The user can put down the cushion 1623 so that the cushion 1623 is located at the third working position, thereby improving the use comfort of the seat device 16. Then the door 13 is closed.

[0085] 3. Use the control device 14 to connect the oxygen generator 18 to adjust and control the oxygen content in the cabin.

[0086] The rigid door 13 in this embodiment is disposed in the flexible cabin 11, and the pressure inside the flexible cabin 11 further improves the sealing performance between the rigid door 13 and the flexible cabin 11, thereby ensuring that the air pressure in the hyperbaric oxygen chamber will not leak and maintaining the oxygen concentration in the cabin.

[0087] 4. The user can perform hyperbaric oxygen therapy in the flexible cabin 11 and adjust the course and time of therapy according to the doctor or relevant instructions. The control device 14 is connected to the oxygen generator 18, and controls the oxygen content in the cabin by adjusting the working state of the oxygen generator 18 to meet the needs of the user.

[0088] 5. After the treatment, the pressure in the chamber will automatically drop to the same normal pressure as outside. At this time, the user can place the cushion 1623 to the fourth working position, and then the user can leave the hyperbaric oxygen chamber by opening the hard door 13. When the hyperbaric oxygen chamber is not in use temporarily, the door 13 can be closed to prevent children from operating it by mistake.

[0089] This completes the use process of the new hyperbaric oxygen chamber of the preferred embodiment.

[0090] The flexible cabin 11 of the novel hyperbaric oxygen chamber in this embodiment is a vertical cylindrical structure. The stability and sealing of the flexible cabin 11 are ensured through reasonable structural design and material selection. An opening 111 is provided on one side of the flexible cabin 11 to facilitate users to enter and leave the hyperbaric oxygen chamber. The flexible cabin 11 in this embodiment is made of soft plastic or glue material, which can be folded and compressed for easy carrying.

[0091] The control device 14 is connected to the oxygen generator 18, and controls the oxygen content in the cabin to meet the needs of the user by adjusting the working state of the oxygen generator 18. The rigid cabin door 13 is connected to the flexible cabin body 11, and adopts a sealing design to ensure that the air pressure in the hyperbaric oxygen cabin will not leak and maintain the oxygen concentration in the cabin.

[0092] The novel hyperbaric oxygen chamber is also equipped with two corresponding manual air release valves during use. The two manual air release valves in this embodiment (not shown in the figure) are assembled on the rigid cabin door 13. One of the two manual air release valves has a valve switch on the inside of the rigid cabin door 13, and the user can operate the air release from the cabin body; the other valve switch is on the outside of the rigid cabin door 13, and the air release can also be operated from the outside. This structural design meets the requirements for the use of the hyperbaric oxygen chamber in emergency situations.

[0093] The connection structure between the manual air release valve and the rigid hatch can be realized by using the existing valve installation technology, such as drilling a hole on the rigid hatch 13 and then sealing and assembling the manual air release valve, etc., which will not be elaborated here.

[0094] The inner support device 12 is arranged inside the flexible cabin 11, and is used to stabilize and support the top and bottom ends of the flexible cabin 11, and ensure the structural stability of the flexible cabin 11. The seat device 16 is arranged inside the flexible cabin 11, and is used to support the user and increase the user's comfort in the hyperbaric oxygen chamber.

[0095] In addition, the oxygen production equipment in this embodiment is all prior art, which can be fully realized by those skilled in the art. The content protected by this utility model does not involve improvements on oxygen production equipment, and will not be elaborated here. In summary, although the utility model has been disclosed as above with preferred embodiments, the above preferred embodiments are not used to limit the utility model. Those skilled in the art can make various changes and modifications without departing from the spirit and scope of the utility model. Therefore, the protection scope of the utility model shall be based on the scope defined by the claims.

Claims

1. A novel hyperbaric oxygen chamber, characterized in that: include: The flexible cabin is a vertical cylindrical structure, and an opening is provided on one side of the flexible cabin; An inner support device, disposed in the flexible cabin, for supporting the interior of the flexible cabin so that the flexible cabin forms a vertical cylindrical structure; A rigid door connected to the flexible cabin, the rigid door being used to seal the opening; as well as A control device connected to the flexible cabin, the control device being used to connect to the oxygen production equipment; The rigid door comprises: An outer door frame, bonded to the outer side of the flexible cabin; An inner door frame bonded to the inner wall of the flexible cabin; and The door body has one side hinged to one side of the inner door frame and the other side snap-connected to the other side of the inner door frame; Wherein, the outer door frame, the inner door frame and the flexible cabin are an integral structure formed by hot pressing.

2. The novel hyperbaric oxygen chamber according to claim 1, characterized in that: The inner support device comprises: An inner bracket is a vertically arranged rectangular structure, wherein two groups of inner brackets are provided, and the two groups of inner brackets are arranged oppositely in the flexible cabin, the top end of the inner bracket is connected to the top end of the flexible cabin, and the bottom end of the inner bracket is connected to the bottom end of the flexible cabin; and The inner support connecting plate is connected to the flexible cabin, and the two ends of the inner support connecting plate are respectively connected to the two groups of inner brackets.

3. The novel hyperbaric oxygen chamber according to claim 2, characterized in that: The inner support comprises: A first support rod, located at the bottom end of the inner bracket, the first support rod is transversely arranged in the flexible cabin, and the first support rod supports the bottom end of the flexible cabin; A second support rod, located at the top of the inner bracket, the second support rod is transversely arranged on the top of the flexible cabin, the second support rod supports the top of the flexible cabin, and the second support rod is parallel to the first support rod; and A first rod assembly is vertically disposed at one side of the flexible cabin, the first rod assembly connects one end of a first support rod and one end of a second support rod, and the second support rod supports one side of the flexible cabin; and The second rod assembly is vertically arranged at the other side of the flexible cabin, and the second rod assembly connects the other end of the first support rod and the other end of the second support rod, and the second support rod supports the other side of the flexible cabin.

4. The novel hyperbaric oxygen chamber according to claim 1, characterized in that: It also includes an external support device, which includes a gravity bottom plate, which is connected to the bottom end of the flexible cabin body and is used to lower the center of gravity of the hyperbaric oxygen chamber.

5. The novel hyperbaric oxygen chamber according to claim 4, characterized in that: The outer support device also includes: A top plate, arranged on the top of the flexible cabin; and The third rod assembly is vertically arranged outside the flexible cabin, the top end of the third rod assembly is connected to the top plate, and the bottom end of the third rod assembly is connected to the gravity bottom plate.

6. The novel hyperbaric oxygen chamber according to claim 1, characterized in that: It also includes a link bar, one end of which is connected to the top of the flexible cabin, and the other end of which is used to connect to the wall.

7. The novel hyperbaric oxygen chamber according to claim 1, characterized in that: The movement track of the door body includes a first working position and a second working position. When the door body is located at the first working position, the door body seals the opening; When the door body is located at the second working position, the door body is located in the flexible cabin, and a user can enter and exit the flexible cabin.

8. The novel hyperbaric oxygen chamber according to claim 1, characterized in that: Also included is a seat device, which is located in the flexible cabin and is used to support a user.

9. The novel hyperbaric oxygen chamber according to claim 8, characterized in that: The seat device comprises: A seat bracket, disposed in the flexible cabin; A seat is arranged on the seat support, the seat is used to support a user, and the seat comprises: A support plate, disposed on the seat bracket, wherein a plane where the support plate is located is lower than a plane where a bottom surface of the door body is located; and A backrest plate, wherein the bottom end of the backrest plate is connected to a side of the support plate away from the rigid door.

10. The novel hyperbaric oxygen chamber according to claim 1, characterized in that: The control device includes an internal control box, which is arranged in the flexible cabin and connected to the oxygen production equipment; an internal control box bracket is also arranged inside the flexible cabin, and the internal control box bracket includes: A fixing plate, disposed in the flexible cabin and connected to the bottom end of the flexible cabin; and An extension plate has one end connected to one side of the fixing plate, and the other end is bent and extends upward along the inner wall of the flexible cabin, and the internal control box is arranged on the extension plate.

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