A sealed far infrared light wave oxygen cabin air leakage monitoring device

Abstract

This utility model relates to the field of far-infrared light wave oxygen chamber technology, and in particular to a sealed far-infrared light wave oxygen chamber leak-proof monitoring device, including a chamber body and a door for closing the opening on the surface of the chamber body. The door is provided with a detection mechanism for detecting whether there is an air leak at the door. The detection mechanism is characterized by comprising: a first sliding groove disposed on the top of the door, with a first slider slidably connected inside the first sliding groove; a driving mechanism disposed in the first sliding groove, the driving mechanism being used to drive the first slider to slide along the inside of the first sliding groove; and a folding plate assembly disposed in the first sliding groove, the folding plate assembly including a first folding plate, a plurality of second folding plates and a third folding plate; after the door is closed and the folding plate assembly is unfolded, an infrared sensor can be brought close to the surface of the door to monitor the temperature change at the door in real time, thereby determining whether there is an air leak.

Description

Technical Field

[0001] This utility model relates to the field of far-infrared light wave oxygen chamber technology, and in particular to a sealed far-infrared light wave oxygen chamber leak-proof monitoring device. Background Technology

[0002] A far-infrared oxygen chamber is a health and wellness device that combines far-infrared technology with an oxygen-rich environment. Far-infrared rays are absorbed by the human body and converted into heat energy, producing a warming effect that promotes blood circulation and metabolism, helps relax muscles, relieve pain, and promotes sweating. To achieve the ideal therapeutic effect, a specific temperature and humidity environment needs to be maintained inside the far-infrared oxygen chamber during use.

[0003] However, existing far-infrared oxygen chambers often lack effective means to monitor the chamber's airtightness in real time, particularly for leaks in critical areas such as the door. If a leak occurs, heat and moisture from the user's perspiration will dissipate into the external environment, making it difficult to raise and maintain the internal temperature within the set ideal range, while humidity will also decrease significantly. Deviations in temperature and humidity directly affect the effectiveness of far-infrared radiation and user comfort, thus reducing the overall therapeutic effect. Therefore, the inability to effectively detect leaks in existing far-infrared oxygen chambers is a significant factor affecting their therapeutic efficacy.

[0004] To address the aforementioned issues, existing technologies urgently need improvement. Utility Model Content

[0005] The purpose of this invention is to address the shortcomings of existing technologies by proposing a sealed far-infrared light wave oxygen chamber leak-proof monitoring device.

[0006] To achieve the above objectives, the technical solution adopted by this utility model is as follows: a sealed far-infrared light wave oxygen chamber anti-leakage monitoring device, including a chamber body and a door for closing the opening on the surface of the chamber body, and a detection mechanism for detecting whether there is an air leak at the door.

[0007] The detection mechanism includes a first slide groove disposed at the top of the hatch, with a first slider slidably connected inside the first slide groove; a drive mechanism disposed within the first slide groove for driving the first slider to slide along the interior of the first slide groove; a folding plate assembly disposed within the first slide groove, the folding plate assembly including a first folding plate, a plurality of second folding plates and a third folding plate, the plurality of second folding plates being located between the first folding plate and the third folding plate, and each pair of second folding plates being rotatably connected by hinges; one end of the first folding plate being rotatably disposed within the first slide groove, and one end of the third folding plate being rotatably connected to the first slider; a plurality of infrared sensors disposed on the folding plate assembly for detecting whether the hatch is leaking air; and the plurality of second folding plates sliding along the direction of the first slide groove via a guide assembly.

[0008] Furthermore, the hatch includes a door frame that is rotatably disposed within an opening in the hull.

[0009] Furthermore, the hatch also includes a transparent glass viewing window embedded in the door frame.

[0010] Furthermore, the drive mechanism includes a rotary motor fixedly installed inside the first slide groove, and the output shaft end of the rotary motor is fixedly connected to a threaded rod, which is threadedly connected to the first slider.

[0011] Furthermore, a sealing gasket is provided on the side of the door frame closest to the hull.

[0012] Furthermore, several of these infrared sensors are respectively disposed on the same side of the first folded plate, several of the second folded plates, and the third folded plate.

[0013] Furthermore, a storage cavity is provided above the door frame, into which the folding panel assembly is stored when in the folded state.

[0014] Furthermore, the guide assembly includes second slides symmetrically opened on both sides of the inner cavity of the first slide, and several of the second folding plates slide along the second slides via second sliders.

[0015] Compared with the prior art, the present invention has the following beneficial effects:

[0016] This device features an unfoldable and retractable folding panel assembly at the top of the cabin door, with infrared sensors mounted on the assembly. A drive and guide mechanism enables the automatic unfolding and retraction of the folding panel assembly. After the cabin door is closed and the folding panel assembly is unfolded, the infrared sensors can be placed close to the cabin surface to monitor temperature changes in real time, thus determining if there is any air leakage. This technical solution solves the problem of existing technologies being unable to detect air leakage in far-infrared oxygen chambers during use, preventing heat and moisture loss due to leaks, and helping to maintain an ideal temperature and humidity environment inside the chamber, ensuring the therapeutic effect. Its foldable and retractable design ensures that the device does not affect the normal opening and closing of the cabin door when not in use, resulting in a compact and practical structure with excellent technical performance. Attached Figure Description

[0017] Figure 1 This is a schematic diagram of the overall structure of a sealed far-infrared light wave oxygen chamber leak prevention monitoring device.

[0018] Figure 2 This is a schematic diagram of the cabin door of a sealed far-infrared oxygen chamber leak-proof monitoring device.

[0019] Figure 3 This is a schematic diagram of the first slide in a sealed far-infrared oxygen chamber leak-proof monitoring device.

[0020] Figure 4 This is a schematic diagram of a folding plate assembly in a sealed far-infrared oxygen chamber leak-proof monitoring device.

[0021] Figure 5 This is a schematic diagram of the second slider in a sealed far-infrared oxygen chamber leak-proof monitoring device.

[0022] Figure 6 This is a schematic diagram of the installation of the sealing gasket in a sealed far-infrared oxygen chamber leak-proof monitoring device.

[0023] In the diagram: 1. Cabin; 2. Cabin door; 3. First slide rail; 4. Rotary motor; 5. Threaded rod; 6. First slider; 7. Folding plate assembly; 8. Infrared sensor; 9. First folding plate; 10. Second folding plate; 11. Third folding plate; 12. Second slide rail; 13. Second slider; 14. Storage cavity; 15. Door frame; 16. Transparent glass window; 17. Sealing gasket. Detailed Implementation

[0024] The following description is intended to disclose the present invention so that those skilled in the art can implement it. The preferred embodiments described below are merely examples, and other obvious variations will occur to those skilled in the art.

[0025] This application relates to the field of far-infrared light wave oxygen chamber technology. As a health and therapeutic device, the far-infrared light wave oxygen chamber provides users with therapeutic effects through far-infrared rays and an oxygen-supplying environment. To ensure the therapeutic effect, the chamber needs to maintain a specific temperature and humidity. However, in existing far-infrared light wave oxygen chambers, it is often difficult to monitor the chamber's airtightness in real time during use, especially whether there are leaks in parts such as the door. Leaks cause heat and moisture loss inside the chamber, causing the internal environment to deviate from the ideal state, thus affecting the therapeutic effect. To address the problem of existing technologies being unable to effectively detect leaks in far-infrared light wave oxygen chambers during use, this application provides a sealed far-infrared light wave oxygen chamber leak-proof monitoring device. This device uses an expandable and retractable detection mechanism installed on the top of the door, which is equipped with an infrared sensor. This mechanism can be deployed to monitor after the door is closed, effectively solving the shortcomings of existing technologies.

[0026] like Figures 1 to 6 The sealed far-infrared oxygen chamber leak-proof monitoring device shown includes a chamber body 1 and a door 2 for closing the openings on the surface of the chamber body 1. The door 2 is equipped with a detection mechanism for detecting whether there is a leak at the door 2. The detection mechanism includes:

[0027] A first sliding groove 3 is provided at the top of the hatch 2, and a first slider 6 is slidably connected inside the first sliding groove 3;

[0028] A drive mechanism is provided in the first slide groove 3, which is used to drive the first slider 6 to slide along the inside of the first slide groove 3.

[0029] The folding plate assembly 7 is disposed in the first slide groove 3. The folding plate assembly 7 includes a first folding plate 9, a plurality of second folding plates 10 and a third folding plate 11. The plurality of second folding plates 10 are located between the first folding plate 9 and the third folding plates 11, and the two second folding plates 10 are rotatably connected by hinges. One end of the first folding plate 9 is rotatably disposed in the first slide groove 3, and one end of the third folding plate 11 is rotatably connected to the first slider 6.

[0030] Several infrared sensors 8 are installed on the folding plate assembly 7 to detect whether there is an air leak in the hatch 2;

[0031] Several second folding plates 10 slide along the direction of the first groove 3 via a guide assembly.

[0032] Compared with existing technologies, the sealed far-infrared oxygen chamber leak-proof monitoring device of this application has significant advantages. Existing technologies lack effective real-time leak detection methods, resulting in the inability to detect and resolve leaks in a timely manner, affecting the therapeutic effect. This application, however, by incorporating an automatically unfolding and retractable folding panel assembly 7 at the top of the chamber door, and integrating an infrared sensor 8 on it, allows the infrared sensor 8 to be deployed close to the surface of the chamber door 2 after the door 2 is closed, enabling real-time, close-range temperature monitoring. This design can sensitively capture minute temperature changes caused by leaks, thereby accurately determining the leak situation. The device has a compact structure, can be stored away when not in use, does not affect the normal opening and closing of the chamber door 2, and is highly automated and easy to operate.

[0033] When using this sealed far-infrared oxygen chamber leak-proof monitoring device for physiotherapy, the user enters the chamber 1 and closes the door 2. At this time, the drive mechanism is activated, thereby driving the first slider 6 to move along the first slide groove 3. Since the third folding plate 11 is rotatably connected to the first slider 6, the movement of the first slider 6 will pull or push the third folding plate 11. At the same time, the first folding plate 9 is fixed to one end of the first slide groove 3 and can rotate. Several second folding plates 10 are connected between the first folding plate 9 and the third folding plate 11 by hinges and are guided by a guide assembly. Thus, the entire folding plate assembly 7 will gradually unfold from the retracted state and lie flat on the top of the door 2. When the folding plate assembly 7 is fully unfolded, several infrared sensors 8 on it are located on one side of the surface of the door 2 and begin to monitor the temperature of the area of ​​the door 2. The far-infrared heating plate inside the chamber 1 generates high temperature. If there is a leak in the door 2, the high-temperature air will escape from the leak, causing the temperature of that area to be higher than the surrounding area. The infrared sensors 8 can detect this temperature anomaly and transmit the signal to the control system for analysis, thereby determining whether there is a leak. Once a leak is detected, an alarm can be triggered or other measures can be taken. After the physiotherapy session, the drive mechanism moves in the opposite direction, causing the first slider 6 to move back, and the folding plate assembly 7 folds up and is stored away.

[0034] During this operation, the first slide rail 3 provides a track for the movement of the first slider 6 and the folding plate assembly 7, the drive mechanism provides the power for unfolding and retracting, and the folding plate assembly 7, as the carrier of the infrared sensor 8, enables its deployment and retraction. The infrared sensor 8 is the core detection element, and the guide assembly ensures the stability of the movement of the folding plate assembly 7. The entire device works in concert to effectively monitor air leakage in the cabin door 2, ensuring the therapeutic effect of the far-infrared light wave oxygen chamber.

[0035] As one embodiment of the present invention, the hatch 2 includes a door frame 15 that is rotatably disposed within an opening in the cabin 1; the hatch 2 also includes a transparent glass window 16 embedded in the door frame 15.

[0036] In implementation, the hatch 2 serves as a component for closing the opening on the surface of the hull 1, and its main structure includes a door frame 15. The door frame 15 is rotatably mounted within the opening in the hull 1 via hinges or other rotatable connections. Thus, the hatch 2 can open and close relative to the hull 1 about a rotation axis. The door frame 15 constitutes the basic framework of the hatch 2, providing a supporting structure for mounting other components on the hatch 2.

[0037] The transparent glass window 16 allows users or external personnel to observe the interior of the cabin 1 when the hatch 2 is closed. This improves ease of use and safety, as it allows observation of the user's status or the operation of equipment inside the cabin. The transparent glass window 16 further refines the structure of the hatch 2, making its functionality more comprehensive.

[0038] As one embodiment of this utility model, the driving mechanism includes a rotary motor 4 fixedly installed inside the first slide groove 3, and a threaded rod 5 is fixedly connected to the end of the output shaft of the rotary motor 4. The threaded rod 5 is threadedly connected to the first slider 6.

[0039] In practice, when the rotary motor 4 is started, its output shaft drives the first slider 6 to slide along the inner wall of the first slide groove 3. This structure can precisely control the position and speed of the first slider 6 within the first slide groove 3, thereby enabling the smooth unfolding and retraction of the folding plate assembly 7 connected to the first slider 6. This specific drive mechanism design provides the foundation for the automation and reliable operation of the entire detection mechanism and is a key component for achieving effective leak detection.

[0040] As one embodiment of this utility model, a sealing gasket 17 is provided on the side of the door frame 15 near the cabin 1.

[0041] In practice, a sealing gasket 17 is provided on the side of the door frame 15 near the cabin 1, that is, in the edge area that contacts or tightly engages with the cabin 1 when the door 2 is closed. The sealing gasket 17 can be made of a material with elasticity and sealing properties, such as rubber, silicone, or other suitable elastomers. The sealing gasket 17 is installed on the corresponding position of the door frame 15 by adhesive, snap-fit, or other fixing methods.

[0042] The function of the sealing gasket 17 is that, when the hatch 2 is closed, the sealing gasket 17 is compressed and deformed, thereby forming a tight sealing barrier between the contact surface between the door frame 15 and the cabin 1. This sealing barrier can effectively prevent the gas (including high-temperature air and moisture) inside the cabin 1 from leaking to the external environment, while also preventing outside air from entering the cabin 1. The sealing gasket 17 is a key component in ensuring the airtightness of the internal environment of the far-infrared oxygen chamber during operation.

[0043] In one embodiment of this utility model, several infrared sensors 8 are respectively disposed on the same side of the first folding plate 9, several second folding plates 10 and the third folding plate 11.

[0044] As one embodiment of this utility model, a storage cavity 14 is provided above the door frame 15, and the folding plate assembly 7 is stored in the storage cavity 14 when in the storage state.

[0045] In practice, a storage cavity 14 is provided in the upper region of the door frame 15. The storage cavity 14 can be a recess, a box, or other structure with accommodating space, and its size and shape match the folding panel assembly 7 in its folded state. When the folding panel assembly 7 is retracted by the drive mechanism, it is guided into and accommodated in the storage cavity 14.

[0046] The storage cavity 14 serves to provide a dedicated storage space for the folded panel assembly 7 in its folded state. When the leak-proof monitoring device is not in operation, the folded panel assembly 7 and its infrared sensor 8 can be completely stored within the storage cavity 14, thus keeping the top surface of the hatch 2 flat and not affecting the normal opening and closing movement of the hatch 2. Simultaneously, storing the folded panel assembly 7 protects it from external environmental contamination or physical damage, extending its service life.

[0047] As one embodiment of the present invention, the guide component includes a second slide groove 12 symmetrically opened on both sides of the inner cavity of the first slide groove 3, and a plurality of second folding plates 10 slide along the second slide groove 12 by means of a second slider 13.

[0048] In practice, the second slide groove 12 and the second slider 13 constitute the guiding mechanism of the folding plate assembly 7. When the drive mechanism moves the first slider 6, thereby pulling or pushing the third folding plate 11, the intermediate second folding plates 10 will fold or unfold under the action of hinge connection. At this time, the second sliders 13 provided on these second folding plates 10 will slide in the symmetrical second slide groove 12, providing lateral support and guidance for the second folding plates 10. This guiding effect can constrain the movement trajectory of the second folding plates 10, preventing them from swaying, tilting or getting stuck during unfolding or folding, and ensuring that the entire folding plate assembly 7 moves smoothly and reliably along a predetermined straight path.

[0049] Working principle of this utility model:

[0050] In use, the user enters the chamber 1 and then closes the door 2. The user receives physical therapy through the physiotherapy components inside the chamber 1 (generally through a far-infrared heating plate, which emits far-infrared rays that can penetrate 4-5 cm into the user's subcutaneous tissue, activating cell activity, promoting blood circulation and accelerating metabolism, relieving muscle pain and inflammation, and helping the body eliminate toxins). As the door 2 is closed, the rotating motor 4 in the first slide groove 3 at the top of the door 2 is activated, driving the threaded rod 5 to rotate and moving the first slider 6. The first slider 6 pulls the folding plate assembly 7 set in the first slide groove 3 to move, unfolding the folding plate assembly 7 and laying it flat on top of the door 2. Several infrared sensors 8 installed on one side of the folding plate assembly 7 can detect whether there is an air leak at the door 2 (because the far-infrared heating plate inside the chamber 1 generates high temperature, if the door 2 leaks, the infrared sensors 8 can detect the temperature change to determine whether the door 2 is leaking).

[0051] The folding plate assembly 7 includes a first folding plate 9, a plurality of second folding plates 10 and a third folding plate 11. The plurality of second folding plates 10 are located between the first folding plate 9 and the third folding plates 11, and the second folding plates 10 are rotatably connected by hinges. One end of the first folding plate 9 is rotatably disposed in the first slide groove 3 and its position is fixed. The plurality of second folding plates 10 slide along the second slide grooves 12 on both sides of the inner cavity of the first slide groove 3 via the second slider 13. One end of the third folding plate 11 is rotatably connected to the first slider 6. A storage cavity 14 is provided above the first folding plate 9 for storing the first folding plate 9, the plurality of second folding plates 10 and the third folding plate 11 into the storage cavity 14 without using the infrared sensor 8.

[0052] Because the hatch 2 moves in an arc when it opens and can be closed to reset, the wires connecting the infrared sensors 8 and the rotary motor 4 only need to have a certain length reserved for pulling when opening and closing the hatch 2.

[0053] The hatch 2 includes a door frame 15 that is rotatably disposed in an opening in the cabin 1 and a transparent glass window 16 embedded in the door frame 15, which facilitates observation of the situation inside the cabin 1 through the transparent glass window 16. The first slide 3 is located at the top of the door frame 15.

[0054] The infrared sensors 8 are mounted on the first folding plate 9, several second folding plates 10, and the third folding plate 11, all located on one side of the surface of the hatch 2, so that the infrared sensors 8 can detect whether there is an air leak in the hatch 2.

[0055] A sealing gasket 17 is provided on the side of the door frame 15 near the hull 1 to seal the door 2 after it is closed.

[0056] The foregoing has shown and described the basic principles, main features, and advantages of this utility model. Those skilled in the art should understand that this utility model is not limited to the above embodiments. The embodiments and descriptions in the specification are merely the principles of this utility model. Various changes and modifications can be made to this utility model without departing from its spirit and scope. All such changes and modifications fall within the scope of protection claimed by this utility model, which is defined by the appended claims and their equivalents.

Claims

1. A sealed far-infrared light wave oxygen chamber leak-proof monitoring device, comprising a chamber body (1) and a door (2) for closing the opening on the surface of the chamber body (1), wherein the door (2) is provided with a detection mechanism for detecting whether there is an air leak at the door (2), characterized in that, The testing institutions include: A first slide groove (3) is provided at the top of the hatch (2), and a first slider (6) is slidably connected inside the first slide groove (3); A driving mechanism is provided in the first slide groove (3), the driving mechanism being used to drive the first slider (6) to slide along the inside of the first slide groove (3); A folding plate assembly (7) is disposed in the first slide groove (3). The folding plate assembly (7) includes a first folding plate (9), a plurality of second folding plates (10) and a third folding plate (11). The plurality of second folding plates (10) are located between the first folding plate (9) and the third folding plate (11), and the two second folding plates (10) are rotatably connected by hinges. One end of the first folding plate (9) is rotatably disposed in the first slide groove (3), and one end of the third folding plate (11) is rotatably connected to the first slider (6). Several infrared sensors (8) are installed on the folding plate assembly (7) to detect whether there is air leakage in the hatch (2); Several of the second folding plates (10) slide along the direction of the first groove (3) via a guide assembly.

2. The sealed far-infrared oxygen chamber leak-proof monitoring device according to claim 1, characterized in that, The hatch (2) includes a door frame (15) that is rotatably disposed within an opening in the cabin (1).

3. The sealed far-infrared oxygen chamber leak-proof monitoring device according to claim 2, characterized in that, The hatch (2) also includes a transparent glass window (16) embedded in the door frame (15).

4. The sealed far-infrared oxygen chamber leak-proof monitoring device according to claim 1, characterized in that, The driving mechanism includes a rotary motor (4) fixedly installed inside the first slide groove (3). The output shaft end of the rotary motor (4) is fixedly connected to a threaded rod (5), which is threadedly connected to the first slider (6).

5. The sealed far-infrared oxygen chamber leak-proof monitoring device according to claim 2, characterized in that, A sealing gasket (17) is provided on the side of the door frame (15) near the cabin (1).

6. The sealed far-infrared oxygen chamber leak-proof monitoring device according to claim 1, characterized in that, Several infrared sensors (8) are respectively disposed on the same side of the first folding plate (9), several second folding plates (10) and the third folding plate (11).

7. The sealed far-infrared oxygen chamber leak-proof monitoring device according to claim 2, characterized in that, A storage cavity (14) is provided above the door frame (15), and the folding plate assembly (7) is stored in the storage cavity (14) when in the storage state.

8. The sealed far-infrared oxygen chamber leak-proof monitoring device according to claim 1, characterized in that, The guide assembly includes a second slide groove (12) symmetrically opened on both sides of the inner cavity of the first slide groove (3), and a plurality of second folding plates (10) slide along the second slide groove (12) respectively via second sliders (13).

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