A sleep-aiding oxygen chamber based on somatosensory music and CES technology

Abstract

The present application relates to the technical field of medical devices, and specifically discloses a sleep-aiding oxygen cabin based on somatosensory music and CES technology, including a cabin body, wherein the cabin body is provided with a cabin door, and a diffusion device is provided in the cabin body, wherein the diffusion device is used to diffuse oxygen-enriched air into the cabin body; the diffusion device includes: a first air outlet, wherein there are a plurality of first air outlets, and the plurality of first air outlets are provided on the inner wall of the cabin body; an air guide tube, wherein the air guide tube is vertically and rotatably provided in the cabin body, and since the air guide tube is provided in the cabin body, the air guide grid on the air guide tube can guide the airflow to flow along the inner wall of the cabin body, so as to avoid the airflow from blowing directly onto the surface of the human body, and since the air guide tube can rotate, the direction of the airflow can be continuously changed during the rotation of the air guide tube, and the flow path of the airflow can be changed, so that the airflow distribution is more uniform, and the diffusion effect of the oxygen-enriched air is enhanced.

Description

Technical Field

[0001] The present application relates to the technical field of medical devices, and in particular to a sleep-aiding oxygen chamber based on somatosensory music and CES technology. Background Art

[0002] Insomnia is a sleep disorder characterized by frequent and persistent difficulty falling asleep and / or maintaining sleep, which leads to unsatisfactory sleep. Insomnia can exist in isolation or be comorbid with mental disorders, physical diseases or substance abuse, and can be accompanied by a variety of functional impairments during wakefulness.

[0003] There are some sleep-aiding oxygen chambers in the prior art. By achieving a relatively airtight environment in the chamber, the human body breathes oxygen-rich air in the chamber, thereby effectively improving the body's hypoxia and promoting metabolism, forming a good sleeping environment to achieve sleep-aiding.

[0004] Existing sleep-aid oxygen chambers can generate oxygen-rich air, but there are some defects when diffusing the oxygen-rich air into the chamber. For example, when some sleep-aid oxygen chambers deliver air, the airflow will blow directly onto the surface of the human body, and long-term blowing will cause discomfort to the human body. Summary of the invention

[0005] The present application provides a sleep-aid oxygen chamber based on somatosensory music and CES technology, thereby solving the technical problem in the prior art that when the sleep-aid oxygen chamber delivers air, the airflow will directly blow onto the surface of the human body, and long-term blowing will cause discomfort to the human body. The application achieves the technical effect of the airflow flowing along the inner wall of the chamber to avoid the airflow blowing directly onto the surface of the human body.

[0006] The present application provides a sleep-aiding oxygen cabin based on somatosensory music and CES technology, comprising a cabin body, the cabin body being provided with a cabin door, and a diffusion device being provided in the cabin body, the diffusion device being used to diffuse oxygen-enriched air into the cabin body;

[0007] The dispersion device comprises:

[0008] A first air outlet, wherein there are a plurality of the first air outlets, and the plurality of the first air outlets are arranged on the inner wall of the cabin;

[0009] An air guide tube is vertically and rotatably arranged in the cabin, and a side wall of the air guide tube is provided with an air guide grid, which guides the airflow to flow along the inner wall of the cabin to prevent the airflow from directly blowing onto the surface of the human body.

[0010] Furthermore, a circular drive rail is provided at the bottom of the cabin, a rail slide is provided at the bottom of the air guide cylinder, the rail slide is slidably provided on the drive rail, a rotating motor is provided inside the cabin, and the rotating motor is transmission-connected to the rail slide;

[0011] The inner cavity of the air guide tube is used for placing seats. A nasal suction terminal is arranged in the cabin, and the nasal suction terminal is used to cover the user's nose and deliver oxygen-enriched air to the user when covering. A notch is arranged on the top of the air guide tube, and the nasal suction terminal extends into the inner cavity of the air guide tube through the notch.

[0012] Further, the air guide tube comprises a main body and a rotating door, the main body is fixedly connected to the cabin body, the rotating door is connected to the main body via a first locking pin assembly, and the rotating door is connected to the cabin door via a second locking pin assembly;

[0013] When the cabin door is in a closed state, the first lock pin assembly is in a locked state, the rotating door is connected to the main body as a whole, forming a cylindrical tube structure, and the second lock pin assembly is in an unlocked state, the rotating door is separated from the cabin door, so that the air guide tube can rotate in the cabin body;

[0014] When the cabin door is in an open state, the first lock pin assembly is in an unlocked state, the rotating door is separated from the main body, the second lock pin assembly is in a locked state, and the rotating door is connected to the cabin door as a whole, so that the rotating door is synchronously in an open state.

[0015] Further, the first lock pin assembly comprises a first lock pin plate arranged at the side of the rotating door, a first lock pin slide groove is arranged on the first lock pin plate, the first lock pin slide groove faces the main body, a first lock pin rod is slidably arranged in the first lock pin slide groove, and a first plugging slide groove corresponding to the first lock pin slide groove is arranged at the edge of the main body;

[0016] A first lock pin tooth groove is provided on the first lock pin slide seat, a first driving slot is provided on the slot wall of the first lock pin slide groove, a first driving gear is provided on one side of the first lock pin plate, the first driving gear extends into the first lock pin slide groove through the first driving slot, the first driving gear is meshed with the first lock pin tooth groove, a first lock pin motor is provided on one side of the first lock pin plate, and the first lock pin motor is transmission connected with the first driving gear.

[0017] Further, the second lock pin assembly includes a connecting column vertically connected to the inner wall of the door, a telescopic cylinder is arranged on the connecting column, the telescopic cylinder is perpendicular to the inner wall of the door, an output end of the telescopic cylinder is connected to a connecting seat, and a placement groove corresponding to the connecting seat is arranged on the outer wall of the rotating door;

[0018] A second driving cavity is provided on the inner wall of the placement groove, a second locking pin cylinder is provided in the second driving cavity, the second locking pin cylinder is perpendicular to the inner wall of the placement groove, a second locking pin rod is connected to the output end of the second locking pin cylinder, and a second plugging hole corresponding to the second locking pin rod is provided on the connecting seat;

[0019] When the output end of the telescopic cylinder is in a retracted state, the connecting seat is away from the mounting groove, and when the rotating door rotates, there is no contact between the cabin door and the rotating door. When the output end of the telescopic cylinder is in an extended state, the connecting seat moves into the mounting groove, and the second plug hole is opposite to the second locking pin rod.

[0020] Further, a first handle is provided on the outer surface of the cabin door, and a second handle is provided on the inner surface of the rotating door, and when the rotating door faces the cabin door, the first handle faces the second handle;

[0021] A linkage assembly is provided between the cabin door and the rotating door. When the second locking pin assembly is locked, the linkage assembly acts synchronously to drive the second handle to be connected to the first handle, so that when the second handle is rotated, the first handle is rotated synchronously.

[0022] Further, the linkage assembly includes a first rotating shaft arranged on the inner wall of the cabin door, the first rotating shaft is connected to the first handle, a second rotating shaft is arranged on the outer wall of the rotating door, the second rotating shaft is connected to the second handle, a docking socket is arranged at the end of the first rotating shaft, the second rotating shaft is connected to a linkage cylinder, the output end of the linkage cylinder is connected to a docking rod, and the docking rod is adapted to the docking socket.

[0023] Furthermore, a second air outlet is provided on the inner wall of the door, and the second air outlet has the same structure as the first air outlet.

[0024] Further, an air duct is provided inside the door, the outlet of the air duct is connected to the second air outlet, the inlet of the air duct is connected to a docking tube, the docking tube extends to the side of the door, a docking cylinder is provided inside the door, and the output end of the docking cylinder is connected to the docking tube;

[0025] An air outlet pipe is arranged on the door frame surface of the cabin body. When the cabin door is closed, the docking pipe is opposite to the air outlet pipe. When the output end of the docking cylinder extends out, the docking pipe is driven to extend forward to connect the docking pipe with the air outlet pipe.

[0026] The technical solution provided by this application has at least the following technical effects or advantages:

[0027] Since an air guide tube is arranged in the cabin, the air guide grid on the air guide tube can guide the airflow to flow along the inner wall of the cabin to avoid the airflow blowing directly onto the human body surface. At the same time, since the air guide tube can rotate, the direction of the airflow can be continuously changed during the rotation of the air guide tube, and the flow path of the airflow can be changed, so that the airflow distribution is more uniform and the diffusion effect of oxygen-rich air is enhanced. BRIEF DESCRIPTION OF THE DRAWINGS

[0028] Figure 1 This is a schematic diagram of the overall structure of the sleep-aiding oxygen chamber based on somatosensory music and CES technology in the implementation mode of this application;

[0029] Figure 2 This is a schematic diagram of the structure of the driving guide rail in the implementation method of this application;

[0030] Figure 3 This is a structural schematic diagram of the first locking pin assembly in the implementation mode of this application;

[0031] Figure 4 This is another perspective structural diagram of the sleep-aiding oxygen chamber based on somatosensory music and CES technology in the implementation mode of this application;

[0032] Figure 5 This is a schematic diagram of the structure of the cabin door and the rotating door in the implementation mode of this application;

[0033] Figure 6 Implementation method for this application Figure 5 A magnified schematic diagram of the structure at center A;

[0034] Figure 7 This is a structural schematic diagram of the second lock pin assembly in the implementation mode of this application;

[0035] Figure 8 Implementation method for this application Figure 5 A magnified schematic diagram of the structure at B in the middle;

[0036] Fig. 9 This is a schematic structural diagram of a hatch door and a revolving door from another perspective in the implementation mode of the present application;

[0037] Fig.10 In the implementation mode of this application Fig. 9 A magnified schematic diagram of the structure at center C.

[0038] In the figure: 1, cabin; 2, cabin door; 3, diffusion device; 4, first lock pin assembly; 5, second lock pin assembly; 6, first handle; 7, second handle; 8, linkage assembly; 9, second air outlet; 10, air outlet pipe; 11, docking pipe; 12, docking cylinder;

[0039] 301, first air outlet; 302, air guide tube; 3021, main body; 3022, rotating door; 303, rotating motor; 304, driving guide rail; 305, guide rail slide seat;

[0040] 401, first lock pin plate; 402, first lock pin slide; 403, first lock pin motor; 404, first lock pin rod; 405, first plug-in slide; 406, first lock pin tooth groove; 407, first drive gap; 408, first drive gear;

[0041] 501, connecting column; 502, telescopic cylinder; 503, connecting seat; 504, second plug hole; 505, placement groove; 506, second driving cavity; 507, second locking pin cylinder; 508, second locking pin rod;

[0042] 801, first rotating shaft; 802, second rotating shaft; 803, docking socket; 804, linkage cylinder; 805, docking rod. DETAILED DESCRIPTION

[0043] The embodiment of the present application discloses a sleep-aiding oxygen cabin based on somatosensory music and CES technology. By setting an air guide tube 302 in the cabin body 1, the air guide grid on the air guide tube 302 can guide the airflow to flow along the inner wall of the cabin body 1 to avoid the airflow blowing directly onto the human body surface. At the same time, since the air guide tube 302 can rotate, the direction of the airflow can be continuously changed during the rotation of the air guide tube 302, and the flow path of the airflow can be changed, so that the airflow distribution is more uniform, thereby enhancing the diffusion effect of oxygen-rich air.

[0044] In order to better understand the above technical solution, the above technical solution will be described in detail below in conjunction with the accompanying drawings and specific implementation methods.

[0045] Embodiment 1, refer to Figures 1 to 10 The present invention provides a sleep-aiding oxygen cabin based on somatosensory music and CES technology, comprising a cabin body 1, the cabin body 1 is provided with a cabin door 2, and the cabin body 1 is provided with a diffusion device 3, and the diffusion device 3 is used to diffuse oxygen-rich air into the cabin body 1.

[0046] Specifically, refer to Figure 4 The diffusion device 3 includes a first air outlet 301 and an air guide tube 302. There are a plurality of first air outlets 301, which are arranged on the inner wall of the cabin 1. The air guide tube 302 is vertically and rotatably arranged in the cabin 1. The side wall of the air guide tube 302 is provided with an air guide grid, which guides the airflow to flow along the inner wall of the cabin 1 to prevent the airflow from directly blowing onto the human body surface.

[0047] It should be noted that, in the present embodiment, the air guide tube 302 can rotate, and during the rotation of the air guide tube 302, the direction of the airflow and the flow path of the airflow can be continuously changed, thereby making the airflow distribution more uniform and enhancing the diffusion effect of the oxygen-enriched air.

[0048] Specifically, refer to Figure 2 A circular drive rail 304 is provided at the bottom of the cabin 1, a rail slide 305 is provided at the bottom of the air guide tube 302, the rail slide 305 is slidably provided on the drive rail 304, a rotating motor 303 is provided inside the cabin 1, and the rotating motor 303 is transmission-connected to the rail slide 305.

[0049] In this embodiment, the inner cavity of the air duct 302 is used to place a seat, and a nasal suction terminal is provided in the cabin 1. The nasal suction terminal is used to cover the user's nose and deliver oxygen-rich air to the user when covering. A notch is provided on the top of the air duct 302, and the nasal suction terminal extends into the inner cavity of the air duct 302 through the notch.

[0050] Insomnia is a sleep disorder characterized by frequent and persistent difficulty falling asleep and / or maintaining sleep, which leads to unsatisfactory sleep. Insomnia can exist in isolation or be comorbid with mental disorders, physical illnesses or substance abuse, and can be accompanied by a variety of functional impairments during wakefulness. According to statistics from the World Health Organization, the global rate of sleep disorders is 27%; and the results of a sleep survey published by the China Sleep Research Society in 2018 showed that the incidence of insomnia among Chinese adults is as high as 38.2%, and more than 300 million Chinese have sleep disorders, and this data is still rising year by year; in 2016, the prevalence of insomnia in China was 15%. In July 2019, the country issued the "Healthy China Action (2019-2030)", which will slow down the rising trend of insomnia as one of the goals of the national mental health promotion action, and include "average daily sleep time for adults" as an advocacy indicator; at the same time, medical institutions are encouraged to carry out sleep-related diagnosis and treatment services to reduce sleep problems in adults.

[0051] The role of sleep in maintaining human health and physiological functions has attracted more and more attention, and the physiological dysfunction caused by insomnia and the health problems caused by it have also become an important content faced by clinical physicians in their daily work. A large number of previous studies have confirmed that insomnia is an important risk factor for many diseases such as cardiovascular and cerebrovascular diseases, diabetes, anxiety and depression, Alzheimer's disease, and cancer. With the continuous acceleration of economic development and the pace of life, the number of people with insomnia has shown a growing trend. Insomnia can cause huge economic and social losses. Studies have shown that the health economic burden of people with insomnia is US$5010 per person-year, while that of people with good sleep is only US$422 per person-year.

[0052] In addition, the indirect losses caused by sleep disorders, including reduced work efficiency / reduced attendance, income loss / absenteeism, and traffic accidents, are significantly higher than direct losses. By the end of 2021, there were more than 3,800 sleep medicine diagnosis and treatment centers in my country. In China, some hospitals in large and medium-sized cities such as Beijing, Shanghai, Guangzhou, Chengdu, and Chongqing have formed independent sleep departments or sleep centers, such as Peking University People's Hospital, West China Hospital, Guang'anmen Hospital of China Academy of Chinese Medical Sciences, Ruijin Hospital Affiliated to Shanghai Jiaotong University School of Medicine, Chongqing Daping Hospital, etc. Taking Guang'anmen Hospital of China Academy of Chinese Medical Sciences as an example, the outpatient volume of insomnia patients in 2021 was about 110,000.

[0053] Oxygen is an important channel for human life support, and the value of oxygen in treating diseases is undeniable. The sleep-aiding oxygen chamber in this embodiment can effectively improve human hypoxia and promote metabolism by allowing the human body to breathe oxygen-rich in a relatively airtight environment in the chamber.

[0054] In this embodiment, a somatosensory music system is installed inside the cabin 1, and CES bioelectric stimulation is provided on the seat. Through electrode stimulation, abnormal intracranial discharges are reduced, and the brain is promoted to calm down from excitement. The somatosensory music system and CES technology are integrated into the zero-gravity seat in the cabin to form a good sleeping environment. At the same time, it is combined with 93% of the oxygen-rich air of the primeval forest for treatment, thereby achieving effective sleep aid.

[0055] Specifically, refer to Figure 4 The air guide 302 includes a main body 3021 and a rotating door 3022 . The main body 3021 is fixedly connected to the cabin body 1 . The rotating door 3022 is connected to the main body 3021 via a first lock pin assembly 4 . The rotating door 3022 is connected to the cabin door 2 via a second lock pin assembly 5 .

[0056] When the cabin door 2 is in a closed state, the first lock pin assembly 4 is in a locked state, the rotating door 3022 is connected to the main body 3021 as a whole to form a cylindrical tube structure, the second lock pin assembly 5 is in an unlocked state, and the rotating door 3022 is separated from the cabin door 2 to facilitate the rotation of the air guide tube 302 in the cabin body 1. When the cabin door 2 is in an open state, the first lock pin assembly 4 is in an unlocked state, the rotating door 3022 is separated from the main body 3021, the second lock pin assembly 5 is in a locked state, and the rotating door 3022 is connected to the cabin door 2 as a whole, so that the rotating door 3022 is synchronously in an open state.

[0057] Specifically, refer to Figure 3 The first lock pin assembly 4 includes a first lock pin plate 401 arranged on the side of the rotating door 3022, a first lock pin slide groove 402 is arranged on the first lock pin plate 401, the first lock pin slide groove 402 is opposite to the main body 3021, a first lock pin rod 404 is slidably arranged in the first lock pin slide groove 402, and a first plug-in slide groove 405 corresponding to the first lock pin slide groove 402 is arranged on the edge of the main body 3021.

[0058] Among them, a first lock pin tooth groove 406 is arranged on the first lock pin rod 404, a first driving slot 407 is arranged on the slot wall of the first lock pin slide groove 402, a first driving gear 408 is arranged on one side of the first lock pin plate 401, the first driving gear 408 extends into the first lock pin slide groove 402 through the first driving slot 407, the first driving gear 408 is meshed with the first lock pin tooth groove 406, a first lock pin motor 403 is arranged on one side of the first lock pin plate 401, and the first lock pin motor 403 is transmission-connected with the first driving gear 408.

[0059] Further, refer to Figure 5 , Figure 6 and Figure 7 The second lock pin assembly 5 includes a connecting column 501 vertically connected to the inner wall of the cabin door 2, and a telescopic cylinder 502 is arranged on the connecting column 501. The telescopic cylinder 502 is perpendicular to the inner wall of the cabin door 2, and the output end of the telescopic cylinder 502 is connected to a connecting seat 503. The outer wall of the rotating door 3022 is provided with a placement groove 505 corresponding to the connecting seat 503.

[0060] Among them, refer to Figure 7 A second driving cavity 506 is provided on the inner wall of the receiving groove 505, and a second locking pin cylinder 507 is provided in the second driving cavity 506. The second locking pin cylinder 507 is perpendicular to the inner wall of the receiving groove 505, and the output end of the second locking pin cylinder 507 is connected to the second locking pin rod 508. A second plug-in hole 504 corresponding to the second locking pin rod 508 is provided on the connecting seat 503.

[0061] In the above-mentioned second lock pin assembly 5, when the output end of the telescopic cylinder 502 is in a retracted state, the connecting seat 503 is away from the mounting groove 505, and when the rotating door 3022 rotates, there is no contact between the cabin door 2 and the rotating door 3022. When the output end of the telescopic cylinder 502 is in an extended state, the connecting seat 503 moves to the mounting groove 505, and the second plug hole 504 is opposite to the second lock pin rod 508.

[0062] At the same time, refer to Fig. 9 and Fig.10 A first handle 6 is provided on the outer surface of the cabin door 2, and a second handle 7 is provided on the inner surface of the rotating door 3022. When the rotating door 3022 is facing the cabin door 2, the first handle 6 is facing the second handle 7. A linkage assembly 8 is provided between the cabin door 2 and the rotating door 3022. When the second lock pin assembly 5 is locked, the linkage assembly 8 acts synchronously to drive the second handle 7 to be connected to the first handle 6, so that when the second handle 7 is rotated, the first handle 6 is rotated synchronously.

[0063] Specifically, refer to Fig.10The linkage assembly 8 includes a first rotating shaft 801 arranged on the inner wall of the cabin door 2, the first rotating shaft 801 is connected to the first handle 6, a second rotating shaft 802 is arranged on the outer wall of the rotating door 3022, the second rotating shaft 802 is connected to the second handle 7, a docking socket 803 is arranged at the end of the first rotating shaft 801, the second rotating shaft 802 is connected to the linkage cylinder 804, the output end of the linkage cylinder 804 is connected to the docking rod 805, and the docking rod 805 is adapted to the docking socket 803.

[0064] Example 2, refer to Figures 1 to 10 In this embodiment, a second air outlet 9 is provided on the inner wall of the hatch 2, and the second air outlet 9 has the same structure as the first air outlet 301. An air duct is provided inside the hatch 2, and the outlet of the air duct is connected to the second air outlet 9. The inlet of the air duct is connected to a docking pipe 11, and the docking pipe 11 extends to the side of the hatch 2. A docking cylinder 12 is provided inside the hatch 2, and the output end of the docking cylinder 12 is connected to the docking pipe 11. An air outlet duct 10 is provided on the door frame surface of the cabin body 1. When the hatch 2 is closed, the docking pipe 11 is opposite to the air outlet duct 10. When the output end of the docking cylinder 12 is extended, the docking pipe 11 is driven to extend forward so that the docking pipe 11 is connected to the air outlet duct 10.

[0065] In summary, in the sleep-aiding oxygen cabin of the present invention, an air guide tube 302 is arranged in the cabin body 1. The air guide grid on the air guide tube 302 can guide the airflow to flow along the inner wall of the cabin body 1 to avoid the airflow from blowing directly onto the human body surface. At the same time, since the air guide tube 302 can rotate, the direction of the airflow can be continuously changed during the rotation of the air guide tube 302, and the flow path of the airflow can be changed, so that the airflow distribution is more uniform, thereby enhancing the diffusion effect of oxygen-rich air.

[0066] Obviously, those skilled in the art can make various changes and modifications to the present invention without departing from the spirit and scope of the present invention. Thus, if these modifications and variations of the present invention fall within the scope of the claims of the present invention and their equivalents, the present invention is also intended to include these modifications and variations.

[0067] What has been described above is only a preferred specific implementation manner of the embodiments of the present application, but the protection scope of the present application is not limited thereto. Any technician familiar with the technical field can make equivalent substitutions or changes according to the technical scheme and concept of the present application within the technical scope disclosed in the present application, which should be covered by the protection scope of the present application.

Claims

1. A sleep-aiding oxygen cabin based on somatosensory music and CES technology, comprising a cabin body (1), wherein the cabin body (1) is provided with a cabin door (2), and characterized in that: The cabin (1) is provided with a diffusion device (3), and the diffusion device (3) is used to diffuse oxygen-enriched air into the cabin (1); The dispersion device (3) comprises: A first air outlet (301), wherein there are a plurality of first air outlets (301), and the plurality of first air outlets (301) are arranged on the inner wall of the cabin (1); An air guide tube (302), the air guide tube (302) being vertically rotatably arranged in the cabin (1), the side wall of the air guide tube (302) being provided with an air guide grid, the air guide grid guiding the airflow to flow along the inner wall of the cabin (1) to prevent the airflow from directly blowing onto the surface of the human body; A circular drive rail (304) is arranged at the bottom of the cabin (1), a rail slide seat (305) is arranged at the bottom of the air guide tube (302), the rail slide seat (305) is slidably arranged on the drive rail (304), a rotating motor (303) is arranged inside the cabin (1), and the rotating motor (303) is transmission-connected to the rail slide seat (305); The inner cavity of the air guide tube (302) is used to place a seat, and a CES bio-electric stimulation device is arranged on the seat. A somatosensory music system and a nasal suction terminal are arranged in the cabin (1). The nasal suction terminal is used to cover the user's nose and deliver oxygen-rich air to the user when covering. A notch is arranged on the top of the air guide tube (302), and the nasal suction terminal extends into the inner cavity of the air guide tube (302) through the notch.

2. A sleep-aiding oxygen chamber based on somatosensory music and CES technology as claimed in claim 1, characterized in that: The air guide tube (302) comprises a main body (3021) and a rotating door (3022), wherein the main body (3021) is fixedly connected to the cabin body (1), the rotating door (3022) is connected to the main body (3021) via a first locking pin assembly (4), and the rotating door (3022) is connected to the cabin door (2) via a second locking pin assembly (5); When the cabin door (2) is in a closed state, the first lock pin assembly (4) is in a locked state, the rotating door (3022) and the main body (3021) are connected as a whole to form a cylindrical tube structure, and the second lock pin assembly (5) is in an unlocked state, the rotating door (3022) is separated from the cabin door (2), so that the air guide tube (302) can rotate in the cabin body (1); When the cabin door (2) is in an open state, the first lock pin assembly (4) is in an unlocked state, the rotating door (3022) is separated from the main body (3021), the second lock pin assembly (5) is in a locked state, and the rotating door (3022) is connected to the cabin door (2) as a whole, so that the rotating door (3022) is synchronously in an open state.

3. A sleep-aiding oxygen chamber based on somatosensory music and CES technology as claimed in claim 2, characterized in that: The first lock pin assembly (4) comprises a first lock pin plate (401) arranged on the side of the rotating door (3022), a first lock pin slide groove (402) being arranged on the first lock pin plate (401), the first lock pin slide groove (402) being directly opposite to the main body (3021), a first lock pin rod (404) being slidably arranged in the first lock pin slide groove (402), and a first plug-in slide groove (405) corresponding to the first lock pin slide groove (402) being arranged on the side of the main body (3021); A first lock pin tooth groove (406) is provided on the first lock pin rod (404), a first driving slot (407) is provided on the slot wall of the first lock pin slide groove (402), a first driving gear (408) is provided on one side of the first lock pin plate (401), the first driving gear (408) extends into the first lock pin slide groove (402) through the first driving slot (407), the first driving gear (408) is meshed with the first lock pin tooth groove (406), a first lock pin motor (403) is provided on one side of the first lock pin plate (401), and the first lock pin motor (403) is transmission-connected to the first driving gear (408).

4. A sleep-aiding oxygen chamber based on somatosensory music and CES technology as claimed in claim 2, characterized in that: The second lock pin assembly (5) comprises a connecting column (501) vertically connected to the inner wall of the cabin door (2), a telescopic cylinder (502) is arranged on the connecting column (501), the telescopic cylinder (502) is vertically connected to the inner wall of the cabin door (2), an output end of the telescopic cylinder (502) is connected to a connecting seat (503), and a placement groove (505) corresponding to the connecting seat (503) is arranged on the outer wall of the rotating door (3022); A second driving cavity (506) is provided on the inner wall of the placement groove (505), a second locking pin cylinder (507) is provided in the second driving cavity (506), the second locking pin cylinder (507) is perpendicular to the inner wall of the placement groove (505), a second locking pin rod (508) is connected to the output end of the second locking pin cylinder (507), and a second plug hole (504) corresponding to the second locking pin rod (508) is provided on the connecting seat (503); When the output end of the telescopic cylinder (502) is in a retracted state, the connecting seat (503) is away from the accommodating groove (505), and when the rotating door (3022) rotates, there is no contact between the cabin door (2) and the rotating door (3022). When the output end of the telescopic cylinder (502) is in an extended state, the connecting seat (503) moves into the accommodating groove (505), and the second plug hole (504) is opposite to the second lock pin rod (508).

5. The sleep-aiding oxygen chamber based on somatosensory music and CES technology as claimed in claim 2, characterized in that: The outer surface of the cabin door (2) is provided with a first handle (6), and the inner surface of the rotating door (3022) is provided with a second handle (7), and when the rotating door (3022) faces the cabin door (2), the first handle (6) faces the second handle (7); A linkage assembly (8) is provided between the cabin door (2) and the rotating door (3022). When the second locking pin assembly (5) is locked, the linkage assembly (8) operates synchronously to drive the second handle (7) to be connected to the first handle (6), so that when the second handle (7) is rotated, the first handle (6) is rotated synchronously.

6. A sleep-aiding oxygen chamber based on somatosensory music and CES technology as claimed in claim 5, characterized in that: The linkage assembly (8) comprises a first rotating shaft (801) arranged on the inner wall of the cabin door (2), the first rotating shaft (801) being connected to the first handle (6), a second rotating shaft (802) being arranged on the outer wall of the rotating door (3022), the second rotating shaft (802) being connected to the second handle (7), a docking socket (803) being arranged at the end of the first rotating shaft (801), the second rotating shaft (802) being connected to a linkage cylinder (804), the output end of the linkage cylinder (804) being connected to a docking plug rod (805), the docking plug rod (805) being adapted to the docking socket (803).

7. The sleep-aiding oxygen chamber based on somatosensory music and CES technology as claimed in claim 1, characterized in that: A second air outlet (9) is provided on the inner wall of the cabin door (2), and the second air outlet (9) has the same structure as the first air outlet (301).

8. The sleep-aiding oxygen chamber based on somatosensory music and CES technology as claimed in claim 7, characterized in that: An air duct is arranged inside the door (2), the outlet of the air duct is connected to the second air outlet (9), the inlet of the air duct is connected to a docking tube (11), the docking tube (11) extends to the side of the door (2), and a docking cylinder (12) is arranged inside the door (2), the output end of the docking cylinder (12) is connected to the docking tube (11); An air outlet pipe (10) is arranged on the door frame surface of the cabin body (1); when the cabin door (2) is closed, the docking pipe (11) is opposite to the air outlet pipe (10); when the output end of the docking cylinder (12) is extended, the docking pipe (11) is driven to extend forward, so that the docking pipe (11) is connected to the air outlet pipe (10).

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