Integrated pipeline interface device for a micro-hyperbaric chamber

Abstract

The integrated pipeline interface device of a micro-high pressure oxygen cabin comprises an integrated interface and a fixed base, the integrated interface comprises an interface base, a transition sleeve and a mixed pipeline plug, a plurality of interface components are integrally arranged on the interface base, each interface component corresponds to each functional pipeline of a control system cabin; the mixed pipeline plug is provided with a plurality of insertion holes corresponding to the interface components, for collecting and penetrating each functional pipeline, the mixed pipeline plug is detachably connected with the interface base through the transition sleeve; the fixed base is provided with through holes for the inner joints of each interface component to pass through, the fixed base and the interface base are provided with flange holes corresponding to each other, the cabin body is provided with mounting holes, and the fixed base and the interface base are clamped and fixed on the mounting holes of the cabin body through screws in the flange holes. The device sets a unified integrated interface on the cabin body, effectively avoids pipeline disorder, reduces the possibility of misoperation, facilitates centralized management, and enhances the safety of use and the convenience of maintenance.

Description

Technical Field

[0001] This utility model relates to the field of micro hyperbaric oxygen chamber technology, specifically to an integrated pipeline interface device for a micro hyperbaric oxygen chamber. Background Technology

[0002] Hyperbaric oxygen chambers, as a common healthcare device, are widely used in professional medical settings such as hospitals, and are now gradually entering ordinary households. Whether it's the high requirements for equipment standardization in professional medical environments or the need for ease of operation in home use, the organization of pipelines, safety protection, and cleanliness of the equipment are particularly important.

[0003] Currently, micro hyperbaric oxygen chambers require multiple pipelines for operation, including air pipelines, oxygen pipelines, exhaust pipelines, and testing pipelines. In existing designs, these pipelines are often scattered in different locations within the chamber, or arranged in a disorderly and disorganized manner. This layout not only affects the overall aesthetics but also brings many problems in practical use: crisscrossing pipelines easily lead to accidental contact or disconnection, increasing the risk of malfunction; scattered interfaces hinder daily management, causing inconvenience for installation, inspection, and maintenance, and also affecting the service life of the equipment and user safety. Utility Model Content

[0004] To address the aforementioned issues, this utility model proposes an integrated pipeline interface device for a compact, safe, and convenient-to-use micro hyperbaric oxygen chamber. This device, by setting a unified integrated interface on the chamber body, centralizes various external connection requirements in one place, effectively avoiding cluttered pipelines, reducing the possibility of misoperation, facilitating centralized management, and enhancing both the aesthetics of the equipment and the safety and ease of maintenance.

[0005] The present invention adopts the following technical solution:

[0006] An integrated pipeline interface device for a micro hyperbaric oxygen chamber includes an integrated interface and a fixed base. The integrated interface includes an interface base, a transition sleeve, and a hybrid pipeline plug. Multiple interface components are integrated on the interface base, and each interface component corresponds one-to-one with the functional pipelines of the control system entering the chamber. Each interface component includes an inner connector, a connecting pipe, and an outer connector. The connecting pipe axially penetrates the interface base, and its outer peripheral wall is sealed to the interface base. One end of the connecting pipe outside the chamber is connected to the outer connector, and the other end of the connecting pipe extending into the chamber is connected to the inner connector.

[0007] The hybrid pipeline plug has a socket corresponding to each of the interface components for collecting and threading various functional pipelines. The hybrid pipeline plug is detachably connected to the interface base via a transition sleeve.

[0008] The fixed base has through holes for the connectors inside each interface component to pass through. The fixed base and the interface base are respectively provided with flange holes. The cabin body is provided with mounting holes. The fixed base and the interface base are clamped and fixed to the mounting holes of the cabin body by screws in the flange holes.

[0009] Through the above technical solution, this utility model provides a compact, safe, and convenient integrated pipeline interface device for a micro hyperbaric oxygen chamber. The device includes an integrated interface and a fixed base. The integrated interface, as the main part, is responsible for connecting various pipelines entering the chamber through the control system to the corresponding pipelines inside the chamber. The fixed base is used to reliably fix the integrated interface to the chamber body and is generally installed at the reserved mounting holes on the side or back of the chamber body. During installation, the interface base of the integrated interface is located on the outside of the chamber body, and the inner connectors of the interface components on it pass through the mounting holes in the chamber body to enter the interior, waiting to connect with the pre-embedded pipelines inside the chamber. Subsequently, the fixed base passes through each inner connector to the connection pipe position, and screws are used to fasten the fixed base and the interface base through the corresponding flange holes and mating holes on the chamber body, thereby firmly clamping the chamber body between the two, forming an integrated centralized pipeline port.

[0010] This utility model's device functions like a "multi-functional port," consolidating all external connection needs in one place. It fundamentally solves the problem of messy and disorganized pipelines, resulting in a clean and simple appearance. It achieves "one-stop" connection, significantly improving installation and maintenance efficiency and reducing operational difficulty. Each connector in this device corresponds precisely to the next, preventing mis-insertion. The device's simple structure facilitates mass production and maintenance, contributing to the formation of industry interface standards.

[0011] Preferably, the interface components include an oxygen interface component, an air interface component, an exhaust interface component, and a detection interface component, each interface component being connected to the oxygen delivery pipe, air delivery pipe, exhaust delivery pipe, and detection delivery pipe of the control system entering the cabin, respectively.

[0012] Preferably, the interface component further includes a communication interface component for centrally connecting the communication lines entering the cabin.

[0013] Preferably, the air interface assembly and the exhaust interface assembly are combined into an intake and exhaust assembly, which is used to connect the intake and exhaust pipes in the cabin through a single interface assembly.

[0014] Based on the above-mentioned preferred technical solutions and the actual usage requirements of the micro hyperbaric oxygen chamber, at least four interfaces are integrated on this device, which are respectively used to connect to the oxygen delivery pipe, air delivery pipe, exhaust delivery pipe, and detection delivery pipe. In addition, communication interfaces can be added or the air exhaust interfaces can be merged to optimize the functions or interface layout according to usage requirements.

[0015] Preferably, a silencer for reducing transmission noise is installed in series between the inner connector of the air interface assembly and the air delivery pipe pre-embedded in the oxygen chamber.

[0016] Through the above technical solution, in order to improve performance, this utility model incorporates a silencer connected in series on the air delivery pipe, effectively reducing the noise generated during air intake and improving the user experience.

[0017] Preferably, an external sealing gasket is provided between the interface base and the outer wall of the cabin, and the external sealing gasket has gasket holes that are adapted to the distribution position and size of the interface components.

[0018] This structure, through its external sealing design, ensures the reliability of the seal at the connection between the integrated interface and the cabin, preventing gas leakage inside and outside the oxygen chamber, effectively maintaining the high-pressure environment required inside the chamber, and improving the stability and safety of equipment operation.

[0019] Preferably, one end of the transition sleeve is detachably connected to the interface base via a quick-plug connection structure, and the other end is detachably connected to the hybrid pipeline plug via a thread.

[0020] Through the above technical solution, the transition sleeve and the interface base can be detachably connected quickly and easily via various methods, including snap-fit ​​and interference fit. The other end is detachably connected to the hybrid pipeline plug via threads. The addition of the transition sleeve provides effective protection for the internal pipeline joints, avoiding damage that may be caused by accidental contact or collision. The detachable connection between the transition sleeve and the interface base and hybrid pipeline plug facilitates the installation, removal, and replacement of accessories, further improving the overall safety and maintainability of the equipment.

[0021] Preferably, a protective sleeve is provided on the socket of the hybrid pipeline plug, and a corrugated tube is provided on the outer end of the hybrid pipeline plug. One end of the corrugated tube is detachably connected to the hybrid pipeline plug by a buckle.

[0022] Through the above technical solution, external pipelines are collected and introduced into the connector via corrugated pipes. Since the plug holes of the mixed pipeline connector are equipped with corresponding protective sleeves, each sleeve corresponds one-to-one with the position of the pipeline entering the compartment. The external pipelines are pulled and protected by the sleeves before entering the mixed pipeline connector. The sleeves are generally made of PU material, achieving orderly pipeline arrangement while providing effective mechanical protection along with the corrugated pipes. Simultaneously, the corrugated pipes can be appropriately matched to the lengths of the external pipelines, providing a collection and guiding function for the external pipelines. This structure balances pipeline protection and layout regularity, and its quick-disassembly design facilitates daily inspection and maintenance.

[0023] Preferably, the interface components are evenly distributed around the circumference of the interface base.

[0024] Preferably, the inner and outer connectors of each interface component are distinguished by at least one of size, shape, or color.

[0025] Through the above technical solution, this utility model uses unique physical specifications for each interface, such as different sizes, shapes, or colors, to distinguish them, effectively preventing mis-insertion of pipelines with different functions and improving the safety of the equipment. Attached Figure Description

[0026] Figure 1 This is a schematic diagram of the overall structure of this utility model.

[0027] Figure 2 This is a structural schematic diagram of the present invention from another angle.

[0028] Figure 3 This is an exploded view of the present invention.

[0029] Figure 4 This is a side view of the present invention.

[0030] Figure 5 This is a structural schematic diagram of the fixed base of this utility model.

[0031] Figure 6 This is a schematic diagram of the structure of the external sealing gasket of this utility model.

[0032] Figure 7 This is a schematic diagram of the structure of this utility model when installed in conjunction with the cabin.

[0033] In the diagram: 1-Interface base; 2-Transition sleeve; 3-Mixing pipeline plug; 4-Interface assembly; 401-Oxygen interface assembly; 402-Air interface assembly; 403-Exhaust interface assembly; 404-Detection interface assembly; 4a-Inner connector; 4b-Outer connector; 4c-Connecting pipe; 5-Sleeve; 6-Fixed base; 7-Through hole; 8-Flange hole; 9-Bucket; 10-Silencer interface; 11-External sealing gasket; 12-Gasket hole; 13-Bellwall. Detailed Implementation

[0034] An integrated pipeline interface device for a micro hyperbaric oxygen chamber includes an integrated interface and a fixed base 6. The integrated interface includes an interface base 1, a transition sleeve 2, and a mixing pipeline plug 3. Multiple interface components 4 are integrated on the interface base 1, each corresponding to a functional pipeline of the control system entering the chamber. The interface components include an oxygen interface component 401, an air interface component 402, an exhaust interface component 403, and a detection interface component 404. Each interface component is connected to the oxygen delivery pipe, air delivery pipe, exhaust delivery pipe, and detection delivery pipe of the control system entering the chamber, respectively. Each interface component specifically comprises an inner connector 4a, a connecting pipe 4c, and an outer connector 4b. The connecting pipe 4c axially penetrates the interface base 1, and its outer peripheral wall is sealed to the interface base 1. The end of the connecting pipe 4c outside the chamber is connected to the outer connector 4b, and the end of the connecting pipe extending into the chamber is connected to the inner connector 4a.

[0035] The hybrid pipeline plug 3 has a socket corresponding to each of the interface components. The socket is provided with a PU sleeve 5 for collecting and threading various functional pipelines. The hybrid pipeline plug 3 is detachably connected to the interface base 1 via a transition sleeve 2. Specifically, one end of the transition sleeve is detachably connected to the interface base 1 through a quick-plug interference fit structure, and the other end of the transition sleeve 2 is detachably connected to the hybrid pipeline plug 3 via a thread.

[0036] The fixed base 6 has a through hole 7 for the inner connector 4c to pass through. The fixed base 6 and the interface base 1 are respectively provided with flange holes 8. The cabin 9 is provided with mounting holes. The fixed base 6 and the interface base 1 are clamped and fixed to the mounting holes of the cabin 9 by screws in the flange holes 8.

[0037] In order to reduce transmission noise, this utility model installs a silencer interface 10 on the inner connector of the air interface assembly 402 and the air delivery pipe pre-embedded in the oxygen chamber. The silencer is connected to the interface, which effectively reduces the noise generated during air intake and improves the experience environment.

[0038] This invention features an external sealing gasket 11 between the interface base 1 and the outer wall of the chamber 9. The external sealing gasket 11 has gasket holes 12 that are adapted to the distribution and size of the interface components. This structure, through its external sealing design, ensures the sealing reliability of the connection between the integrated interface and the chamber, prevents gas leakage inside and outside the oxygen chamber, effectively maintains the required high-pressure environment inside the chamber, and improves the stability and safety of equipment operation.

[0039] The present invention provides a corrugated tube 13 for protecting the pipeline at the outer end of the hybrid pipeline plug 3. One end of the corrugated tube 13 is detachably connected to the hybrid pipeline plug 3 by a buckle.

[0040] When using

[0041] 1) The interface base 1 and the fixed base 2 are fixed to the back plate of the cabin 9 with screws. During installation, an external sealing gasket 11 is installed between the interface base 2 and the cabin 9 to provide a seal. The corresponding air pipes inside the cabin are installed on the interface base 1 through the internal connector 4a;

[0042] 2) Secure the corrugated pipe 13 and the mixing line plug 3 together with a snap-fit, and secure the transition sleeve 2 and the mixing line plug 3 together with threads;

[0043] 3) Insert the oxygen supply pipe, air supply pipe, exhaust supply pipe, and detection supply pipe of the control system into the corrugated pipe and through the sleeve 5, pass through the mixing line plug 3, and exit from one end of the transition sleeve 2 and be respectively inserted into the external connector 4b on the base interface 1; the transition sleeve 2 and the base interface 1 are connected by a quick-plug interference fit.

[0044] 4) The external control system pipelines have been streamlined, and all pipeline interfaces have been connected to the internal system via pre-embedded pipes and cables within the device. To reduce noise, silencers will be connected in series in the air ducts entering the cabin for noise reduction treatment.

[0045] The above description provides a detailed account of one embodiment of the present invention. However, this description is merely a preferred embodiment and should not be construed as limiting the scope of the present invention. All equivalent variations and improvements made within the scope of the claims of the present invention should still fall within the patent coverage of the present invention.

Claims

1. An integrated pipeline interface device for a micro hyperbaric oxygen chamber, characterized in that: The system includes an integrated interface and a fixed base. The integrated interface includes an interface base, a transition sleeve, and a hybrid pipeline plug. The interface base is equipped with multiple interface components, each corresponding to a functional pipeline of the control system entering the cabin. Each interface component includes an inner connector, a connecting pipe, and an outer connector. The connecting pipe axially penetrates the interface base, and its outer peripheral wall is sealed to the interface base. One end of the connecting pipe outside the cabin is connected to the outer connector, and the other end of the connecting pipe inside the cabin is connected to the inner connector. The hybrid pipeline plug has sockets corresponding to each of the interface components for collecting and threading various functional pipelines; the hybrid pipeline plug is detachably connected to the interface base via a transition sleeve. The fixed base has through holes for the connectors inside each interface component to pass through. The fixed base and the interface base are respectively provided with flange holes. The cabin body is provided with mounting holes. The fixed base and the interface base are clamped and fixed to the mounting holes of the cabin body by screws in the flange holes.

2. The integrated pipeline interface device for a micro hyperbaric oxygen chamber according to claim 1, characterized in that: The interface components include an oxygen interface component, an air interface component, an exhaust interface component, and a detection interface component. Each interface component is connected to the oxygen delivery pipe, air delivery pipe, exhaust delivery pipe, and detection delivery pipe of the control system entering the cabin, respectively.

3. The integrated pipeline interface device for a micro hyperbaric oxygen chamber according to claim 2, characterized in that: The interface component also includes a communication interface component, which is used to centrally connect the communication lines entering the cabin.

4. The integrated pipeline interface device for a micro hyperbaric oxygen chamber according to claim 2, characterized in that: The air interface assembly and the exhaust interface assembly are combined into an intake and exhaust assembly, which is used to connect the intake and exhaust pipes in the cabin through a single interface assembly.

5. An integrated pipeline interface device for a micro hyperbaric oxygen chamber according to claim 2, characterized in that: A silencer for reducing transmission noise is installed in series between the inner connector of the air interface assembly and the air delivery pipe pre-embedded in the oxygen chamber.

6. The integrated pipeline interface device for a micro hyperbaric oxygen chamber according to claim 1, characterized in that: An external sealing gasket is provided between the interface base and the outer wall of the cabin, and each external sealing gasket has gasket holes that are adapted to the distribution position and size of the interface components.

7. The integrated pipeline interface device for a micro hyperbaric oxygen chamber according to claim 1, characterized in that: One end of the transition sleeve is detachably connected to the interface base via a quick-plug connection structure, and the other end is detachably connected to the hybrid pipeline plug via a thread.

8. The integrated pipeline interface device for a micro hyperbaric oxygen chamber according to claim 1, characterized in that: The plug of the hybrid pipeline is provided with protective sleeves on the corresponding holes, and the outer end of the hybrid pipeline is provided with a corrugated tube. One end of the corrugated tube is detachably connected to the hybrid pipeline plug by a buckle.

9. The integrated pipeline interface device for a micro hyperbaric oxygen chamber according to claim 1, characterized in that: The interface components are evenly distributed around the circumference of the interface base.

10. The integrated pipeline interface device for a micro hyperbaric oxygen chamber according to claim 1, characterized in that: The inner and outer connectors of each interface component are distinguished by at least one of the following: size, shape, or color.

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