Use method of holographic breathing cabin

Abstract

The invention discloses a using method of a holographic breathing cabin, which comprises the following steps: when a cabin is in a positive pressure state, the total air inlet quantity of all air inlet holes is greater than the total air exhaust quantity of all air exhaust holes, and the pressure in the cabin is increased to positive pressure so as to quickly relieve the hypoxia state or the oxygen-deficient state of a human body; when the cabin is in the pressure maintaining state, air inlet and air outlet are stopped, or the total air inlet amount is equal to the total air outlet amount, the oxygen concentration in the cabin is gradually reduced, and the oxygen supply state in the human body gradually approaches the daily state; when the cabin is in a negative pressure state, the total air inflow of all the air inlet holes is smaller than the total air outflow of all the air outlet holes so as to strengthen the respiratory function of the human body. The using method is matched with the holographic breathing cabin to achieve the continuous change process that positive pressure is converted into negative pressure after pressure maintaining, in the process, the supply requirement of high-concentration oxygen in the high-pressure state is met, and the exercise process that the human body is forced to deepen breathing and strengthen the cardiopulmonary function in order to obtain enough oxygen in the negative-pressure state is achieved.

Description

Technical Field

[0001] The present invention relates to the technical field of big health equipment, and in particular to a method for using a holographic breathing chamber in a big health mode or a medical emergency mode. Background Art

[0002] In the prior art, a hyperbaric oxygen chamber can provide the personnel in the chamber with an oxygen concentration higher than that of the atmosphere, so as to increase the oxygen content in the blood, quickly relieve the hypoxia state of the human body, and achieve the purpose of treating various diseases caused by hypoxia. However, people have also found that although the oxygen chamber can play a good therapeutic role in various diseases, if the operation is improper during the treatment, serious consequences will occur, such as oxygen poisoning, barotrauma and decompression sickness, etc. The main reason is the negative impact on the human cardiopulmonary function caused by the sudden change of oxygen concentration and air pressure. In addition, because the oxygen chamber is a relatively sealed and narrow space, the relative circulation of the gas in the chamber is poor, and cross-infection is easy to occur between patients in it. Summary of the invention

[0003] The purpose of the present invention is to overcome the shortcomings of the prior art and provide a method for using a holographic breathing chamber. The method enables a human body to obtain high-concentration oxygen in a fresh air environment by controlling the intake and exhaust volume in a relatively closed cabin, and can also open the alveoli in the body as much as possible in a negative pressure environment of fresh air to achieve the purpose of deep breathing, so as to improve the cardiopulmonary function of the human body. The technical scheme adopted is: a method for using a holographic breathing chamber, characterized in that: the method includes: a person is in the cabin; the cabin is enclosed by a cabin body, a cabin door is opened on the cabin body, and an air inlet and an exhaust hole are arranged on the cabin body; when the cabin is in a positive pressure state When: the total air intake of all air intake holes is greater than the total exhaust volume of all exhaust holes, the purified fresh air is continuously delivered into the cabin, the pressure in the cabin is raised to positive pressure, and the oxygen with a higher concentration than usual enters the human body with the pressurized air to quickly relieve the hypoxia or hypoxia of the human body; when the cabin is in a pressure-maintaining state: stop the intake and exhaust, or the total intake volume is equal to the total exhaust volume, the oxygen concentration in the cabin gradually decreases, and the oxygen supply state in the human body gradually approaches the daily state; when the cabin is in a negative pressure state: the total air intake of all air intake holes is less than the total exhaust volume of all exhaust holes, and the cabin gradually turns to a negative pressure state to strengthen the human respiratory function. From positive pressure to negative pressure state through pressure maintenance, the human alveoli continue to open and fill in the continuous change, avoiding the discomfort of the human body caused by sudden pressure changes; there is always fresh air in the cabin, avoiding the negative impact of dirty air on the human body.

[0004] An exhaust valve is provided at the exhaust hole of the cabin body, and the exhaust valve can be a manual pressure relief valve. Among the multiple exhaust valves, a manual exhaust valve that can be opened manually by the human body according to one's own feeling can be provided, and an automatic exhaust valve can also be provided.

[0005] In order to achieve the purpose of forced air intake, the at least one air inlet is connected to a pneumatic motor. The structure of the pneumatic motor can be a linear reciprocating pneumatic motor, which includes a flexible bellows located on at least one side of the cabin, or a centrifugal pneumatic motor, an axial flow pneumatic motor, a compression pneumatic motor, or other common pneumatic motors in the prior art.

[0006] As an enterable cabin, the cabin is provided with seats and an observation window is installed on the cabin body to facilitate observation of the personnel in the cabin.

[0007] The beneficial effects of the present invention are as follows: the use method, in conjunction with the holographic breathing chamber, realizes a continuous change process in which positive pressure is converted into negative pressure after pressure maintenance. In this process, not only the supply demand for high-concentration oxygen under high-pressure conditions is met, but also the training process in which the human body is forced to deepen its breathing and strengthen its cardiopulmonary function in order to obtain sufficient oxygen under negative pressure conditions is realized, so as to achieve the treatment of human hypoxia and anoxia; the use method can not only meet medical purposes, but can also be used in conjunction with the holographic breathing chamber to achieve the health care needs of the family. BRIEF DESCRIPTION OF THE DRAWINGS

[0008] Attached Figure 1 is a schematic diagram of the holographic breathing chamber structure in Example 1, Figure 2 Yes Figure 1 Schematic diagram of the interior of the holographic breathing chamber, attached Figure 3 This is a schematic diagram of the interior of the holographic breathing chamber in Example 2.

[0009] Among them, 1 is the cabin, 2 is the cabin body, 3 is the cabin door, 4 is the observation window, 5 is the control panel, 6 is the flexible bellows, 7 is the seat, 8 is the exhaust valve, 9 is the air intake hole, and 10 is the supporting leg. DETAILED DESCRIPTION

[0010] The specific implementation of the present invention will be described below in conjunction with the accompanying drawings. Example 1

[0011] The present invention discloses a holographic breathing chamber and a method for using the holographic breathing chamber. The holographic breathing chamber comprises a relatively sealed chamber 1 enclosed by a chamber body 2. An air inlet 9 and an exhaust hole are provided on the chamber body 2. An exhaust valve 8 is installed on the exhaust hole. At least one air inlet 9 is connected to a pneumatic motor, which can be a linear reciprocating pneumatic motor. A seat 7 for people to sit on is provided in the chamber 1. An observation window 4 is also provided on the chamber body 2 for medical personnel to timely observe and understand the situation of people in the chamber.

[0012] The method of using this holographic breathing chamber includes: People enter cabin 1 through cabin door 3; When the cabin 1 is in a positive pressure state, the total air intake of all the air inlets is greater than the total air exhaust of all the air exhaust holes, so as to ensure that the purified fresh air is continuously delivered into the cabin 1. The pressure in the cabin 1 is increased to a positive pressure (i.e., higher than the external atmospheric pressure), and oxygen with a higher concentration than the normal concentration (i.e., the oxygen concentration in the external atmosphere) enters the human body along with the pressurized air, so as to quickly relieve the human body from hypoxia or hypoxia. When the cabin 1 is in the pressure-maintaining state, the air intake and exhaust in the cabin 1 are stopped (because the pressure-maintaining time is relatively short, even if the air intake and exhaust are stopped, it will not affect the normal breathing of the human body), or the total air intake volume is equal to the total exhaust volume (at this time, the freshness and cleanliness of the air in the cabin 1 can be guaranteed), the oxygen concentration in the cabin 1 gradually decreases, and the oxygen supply state in the human body gradually approaches the normal state; When cabin 1 is in a negative pressure state, the total air intake of all air inlets is less than the total air exhaust of all air exhaust holes, so the air concentration in the cabin gradually decreases, and cabin 1 gradually turns into a negative pressure state. In a thin air environment, the alveoli of the human body are forced to gradually open to obtain more oxygen, which is more conducive to the strengthening and exercise of the human body's heart, lungs and other respiratory functions. Example 2

[0013] The difference between this embodiment and Embodiment 1 is that the air motor in this embodiment can be a centrifugal air motor, an axial flow air motor or a compression air motor.

[0014] Of course, the above description is not a limitation of the present invention, and the present invention is not limited to the above examples. Changes, modifications, additions or substitutions made by ordinary technicians in this technical field within the essential scope of the present invention also fall within the protection scope of the present invention.

Claims

1. A method for using a holographic breathing chamber, characterized in that: The method of use includes: People are in the cabin; The cabin is enclosed by a cabin body, a cabin door is provided on the cabin body, and an air inlet and an air outlet are provided on the cabin body; When the cabin is in a positive pressure state: the total air intake of all air inlets is greater than the total exhaust volume of all air outlets, and the purified fresh air is continuously delivered into the cabin, the pressure in the cabin is increased to positive pressure, and oxygen with a higher concentration than usual enters the human body with the pressurized air to quickly relieve the body's hypoxia or oxygen deficiency state; When the cabin is in a pressure-maintaining state: air intake and exhaust are stopped, or the total air intake is equal to the total exhaust, the oxygen concentration in the cabin gradually decreases, and the oxygen supply state in the human body gradually approaches the normal state; When the cabin is in a negative pressure state: the total air intake of all air inlets is less than the total exhaust volume of all exhaust holes, and the cabin gradually turns into a negative pressure state to enhance the human respiratory function.

2. The method for using the holographic breathing chamber according to claim 1, characterized in that: An exhaust valve is arranged at the exhaust hole.

3. The method for using the holographic breathing chamber according to claim 1, characterized in that: At least one of the air inlet holes is connected to a pneumatic motor.

4. The method for using the holographic breathing chamber according to claim 3 is characterized in that: The air motor is a linear reciprocating air motor, and the linear reciprocating air motor includes a flexible bellows located on at least one side of the cabin.

5. The method for using the holographic breathing chamber according to claim 3, characterized in that: The air motor is a centrifugal air motor, an axial flow air motor or a compression air motor.

6. The method for using the holographic breathing chamber according to claim 1, characterized in that: The cabin is provided with seats.

7. The method for using the holographic breathing chamber according to claim 1, characterized in that: An observation window is arranged on the cabin body.

8. The method for using the holographic breathing chamber according to claim 1, characterized in that: A manual exhaust valve is provided at the exhaust hole.

Images