Underwater first-aid oxygenation method and device based on single-person closed space

Abstract

The invention relates to an underwater first-aid oxygenation method and device based on a single-person confined space, the oxygenation method is designed based on a first-aid oxygenation device mainly comprising a reaction container of a sea-land dual-purpose sound and temperature hidden transfer device, and the oxygenation method comprises the following steps: triggering the device to work; checking the airtightness of the device; loading medicines; filling the gas collecting bottle with water; dropwise adding water to carry out oxygen production reaction; the oxygenation device comprises a reaction container bottle, a protective reaction container shell is arranged on the outer layer of the reaction container bottle, a reaction container surface layer soft device is further arranged on the outer side of the reaction container shell in a wrapping mode, and the inner space of the reaction container bottle is divided into a container I and a container II which contain water and calcium peroxide respectively. Purified water is contained in the container I, and calcium peroxide particles are contained in the container II. According to the underwater first-aid oxygenation method and device, timely oxygen supplementation is provided for people trapped underwater in a single closed space, deterioration of the oxygen deficit condition is delayed, and the survival probability of the trapped people before rescue arrives is greatly increased.

Description

Technical Field

[0001] The invention relates to the technical field of underwater first aid equipment, and in particular to an underwater first aid oxygenation method and device based on a single-person enclosed space. Background Art

[0002] When doing underwater activities, people may encounter various unexpected situations and be trapped in a single-person confined space (the underwater first aid oxygen enrichment technology can also be used in situations such as diving bell failure and accidental closure of underwater working chambers). Currently, underwater rescue faces many challenges, the most critical of which is the oxygen supply problem for trapped people before rescue arrives. Traditional underwater breathing devices are mostly designed for normal underwater activities, and lack targeted oxygen enrichment first aid solutions for such sudden situations of being trapped in a single-person confined space.

[0003] In a confined space, air exchange is extremely limited. As the trapped person consumes oxygen through breathing, carbon dioxide accumulates, which quickly leads to the formation of an oxygen-deficient environment, threatening the life safety of the trapped person. Some existing underwater breathing equipment is difficult to directly apply to this special scenario. For example, some equipment is large in size and is not suitable for use in a single confined space; some equipment requires external continuous power supply or air source supplementation, which cannot meet the needs in sudden trapped scenarios. Summary of the invention

[0004] In order to solve the above technical problems, the present invention provides an underwater emergency oxygenation method based on a single-person enclosed space, wherein the emergency oxygenation method is based on an emergency oxygenation device design mainly based on a reaction container of an amphibious acoustic and temperature concealed transfer device, and comprises the following steps:

[0005] Step S1: The trigger device works; the trigger condition is that the trapped person actively operates or the sensor device automatically detects that the oxygen concentration is too low or the carbon dioxide concentration is too high;

[0006] Step S2: Check the air tightness of the device; after connecting the emergency oxygen enrichment device, close the piston of the separatory funnel, put one end of the air guide tube into the water, and then cover the reaction container with your hand to observe whether there are bubbles coming out of the air guide tube in the water;

[0007] Step S3: loading the medicine; adding calcium peroxide particles into container II;

[0008] Step S4: Fill the gas collecting bottle with water; fill the gas collecting bottle with water, cover the bottle mouth with a glass sheet, and then invert it in a water tank;

[0009] Step S5: dripping water to carry out oxygen production reaction; opening the force-bearing valve button to allow the liquid to flow into the separatory funnel through container I, slowly dripping water into the bottle of container II, controlling the dripping speed, and observing the reaction phenomenon.

[0010] In one embodiment of the present invention, the dripping acceleration in step S5 is controlled by adjusting the flow of liquid into the separatory funnel through the force-bearing valve button and the control panel clamp, so as to control the dripping speed of water and thus control the reaction rate.

[0011] In one embodiment of the present invention, in observing the reaction phenomenon in step S5, it is necessary to observe the changes of particles in the bottle of container II and whether bubbles are generated through the liquid separation transparent window; at the same time, observe the state of gas collected in the gas collecting bottle.

[0012] In one embodiment of the present invention, after the above-mentioned oxygen enrichment process is completed, the oxygen generated by the reaction enters the gas collecting bottle through the air duct, and the oxygen output hood on the cabin top is opened for oxygen inhalation.

[0013] In one embodiment of the present invention, after the oxygenation step is completed, the force-bearing valve button is first closed to stop dripping water into container II; then the reacted solution is placed in a waste bucket, and the reaction container is cleaned.

[0014] The present invention also provides an underwater emergency oxygenation device based on a single-person enclosed space. The emergency oxygenation device is based on a single-person enclosed cabin arrangement of an amphibious acoustic and thermal concealed transfer device, comprising a reaction container bottle. The outer layer of the reaction container bottle is provided with a protective reaction container shell, and the outer side of the reaction container shell is also wrapped with a reaction container surface soft decoration. The internal space of the reaction container bottle is divided into container I and container II, and they respectively contain water and calcium peroxide. Specifically, container I contains pure water, and container II contains calcium peroxide particles.

[0015] In one embodiment of the present invention, the port of container I is provided with container mouth I, and container mouth piston connection is provided at container mouth I; at the same time, the port of container II is provided with container mouth II, and container mouth conduit is provided at container mouth II for connection.

[0016] In one embodiment of the present invention, a transparent liquid separation window is provided at one end on the same side of the reaction container bottle and the reaction container shell, and a partition elastic plate, a fixed plate and a sealing gasket are provided in the gap between container I and container II, all of which are arranged in a horizontal direction, and a sealing gasket is provided on the contact surface of the partition elastic plate and the contact end of the fixed plate.

[0017] In one embodiment of the present invention, a stressed valve button is provided on the surface of the reaction container shell, and a stressed surface plate is provided on the contact surface, and the stressed valve button includes an elastic mechanism accessory and an anti-corrosion column, one end of the elastic mechanism accessory is connected to the middle of a long shaft rod below the stressed surface plate, and the long shaft rod drives the middle septum elastic plate to open and close upward; in addition, the anti-corrosion column is provided below the stressed surface plate, and passes through the elastic mechanism accessory to be connected to the middle septum elastic plate

[0018] In one embodiment of the present invention, a separatory funnel is provided below the middle elastic plate, and the separatory funnel includes a separatory funnel mouth and a separatory funnel scale. At the same time, an air duct is provided at the bottle mouth of container I, which is connected to the gas collecting bottle, wherein the air duct has several groups of air duct extension sections connected end to end; the output connection port of the gas collecting bottle is connected to the cabin top oxygen output hood through the air duct.

[0019] Compared with the prior art, the above technical solution of the present invention has the following advantages:

[0020] Improve the chance of survival: Provide timely oxygen supplementation for people trapped in a single enclosed space underwater, delay the deterioration of hypoxia, and greatly improve the survival chance of the trapped people before rescue arrives.

[0021] Simple and reliable: It adopts chemical oxygen production and simple physical absorption of carbon dioxide, which does not require complicated external equipment connection and energy supply, and has higher reliability in emergency situations.

[0022] Low cost: The components of the device are relatively simple and low-cost, which makes it easy to promote and apply it on a large scale as an emergency equipment reserve in various possible underwater operation scenarios. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] In order to make the contents of the present invention more clearly understood, the present invention is further described in detail below based on specific embodiments of the present invention in conjunction with the accompanying drawings.

[0024] Figure 1 The schematic diagram is a use state of the underwater emergency oxygenation device based on a single-person enclosed space of the present invention;

[0025] Figure 2 Schematic diagram of the underwater emergency oxygenation device of the present invention in a closed state;

[0026] Figure 3 It is a schematic diagram of the position of the structural assembly of the cabin top oxygen output cover and the reaction container shell of the present invention;

[0027] Figure 4 It is a schematic diagram of the structure of the emergency trigger and control mechanism in the reaction container bottle of the present invention.

[0028] As shown in the figure, 1. reaction container bottle; 2. reaction container shell; 3. container I; 4. container II; 5. reaction container surface soft decoration; 6. container bottle mouth I; 7. container bottle mouth II; 8. container bottle mouth piston; 9. container bottle mouth catheter; 10. liquid separation transparent visual window; 11. fixing plate; 12. middle partition elastic plate; 13. sealing gasket; 14. force-bearing valve button; 15. elastic mechanism accessories; 16. anti-corrosion column; 17. force-bearing surface plate; 18. liquid separation funnel mouth; 19. liquid separation funnel scale; 20. air guide tube extension; 21. gas collecting bottle; 22. cabin top oxygen output hood; 23. pure water; 24. calcium peroxide particles; 25. single-person closed cabin. DETAILED DESCRIPTION

[0029] Embodiment 1

[0030] like Figure 1 to Figure 4 As shown, this embodiment provides an underwater emergency oxygen enrichment device based on a single-person enclosed space, and its structural parts include: a reaction container bottle, a reaction container shell, a container I, a container II, a reaction container surface soft decoration, a container bottle mouth I, a container bottle mouth II, a container bottle mouth piston, a container bottle mouth catheter, and a liquid separation transparent visual window; a force-bearing middle partition, a fixed plate, a middle partition elastic plate, and a sealing gasket; a force-bearing valve button, an elastic mechanism accessory, an anti-corrosion column, and a force-bearing surface plate; a liquid separation funnel mouth and a liquid separation funnel scale; an air guide tube extension section, a gas collecting bottle, a cabin top oxygen output hood, a single-person enclosed cabin, pure water, and calcium peroxide particles.

[0031] The reaction container bottle: its internal parts container I and container II are designed according to the internal space of the amphibious sound and temperature concealed transfer device. The movable and fixable flat rectangular bottle is used as a reaction container for containing calcium peroxide and water.

[0032] The reaction container shell is designed to protect the 1-reaction container bottle. It is a soft shell that can achieve drying function and provide human body contact comfort. Its material uses the moisture-absorbing cotton in the land-sea dual-purpose sound temperature concealed transfer device as the protection of the 1-reaction container bottle shell. It has good water absorption and can absorb moisture in the surrounding environment, thereby keeping the environment where the protection bottle is located dry. At the same time, it is soft in texture and comfortable to touch, and will not cause discomfort when in contact with the human body.

[0033] The surface soft decoration of the reaction container: its surface material needs to be processed into soft decoration special materials in combination with the internal soft decoration of the amphibious sound and temperature concealed transfer device and the human body contact comfort. Special materials designed to solve the discomfort of human body in a small space without hard objects blocking the human body.

[0034] The container bottle mouth I, container bottle mouth II, container bottle mouth piston, and container bottle mouth catheter are two bottle mouths at the upper end of the reaction container bottle. The upper container bottle mouth I needs to be combined with the piston; the container bottle mouth II needs to be connected with the catheter; the purpose of the connection is to transport oxygen to the gas collecting bottle.

[0035] The transparent viewing window for liquid separation is used to observe the amount of water in the container and the amount of calcium peroxide used, so as to facilitate timely addition without affecting the use of the equipment.

[0036] The septum elastic plate, fixed plate and sealing gasket are partitions of the middle part of the reaction container bottle. The septum elastic plate has a fixed plate at the upper end and a septum elastic plate at the lower end. A sealing gasket is added to the contact surface on the contact end of the fixed plate and the elastic plate to prevent liquid leakage.

[0037] The stressed valve button, elastic mechanism accessories, anti-corrosion column, and stressed surface plate; the stressed valve button is located at a position above the equipment that is easily touched by the arm and elbow, so that the elbow presses the valve to open, and the arm is laid flat to close the valve; the elastic mechanism accessories are elastic configurations in the middle of the long shaft rod below the stressed surface plate, which play a role in opening and closing the septum elastic plate downward and upward; the anti-corrosion column is located below the stressed surface plate and passes through the elastic mechanism accessories to match the septum elastic plate. The stressed surface plate is located on the surface of the contact surface of the reaction container bottle, which is convenient for contact with the human arm and elbow joint, and plays a role in assisting the opening and closing of the stressed valve button.

[0038] The separatory funnel is located below the middle elastic plate. The liquid in container I is slowly dripped into container II through the separatory funnel to control the reaction rate. A scale is designed on the surface of the separatory funnel and a transparent window is used to observe the amount of liquid in the container.

[0039] The gas guide pipe is connected to the mouth of the container I of the reaction container bottle to guide the gas generated by the reaction out.

[0040] The gas collecting bottle is used to collect oxygen produced by the reaction. Liquid needs to be added during use. The liquid will evaporate the humidity as the oxygen is output, which will moisturize the patient.

[0041] The cabin top oxygen output hood is a mask placed on the surface of the human mouth and nose for inhaling oxygen. The connection method is to connect the airway tube through the gas collecting bottle connection port, and the end of the airway tube is connected to the cabin top oxygen output hood interface to then output gas to supplement the oxygen in the cabin.

[0042] The pure water mentioned here refers to the pure water for medical use and human inhalation requirements, which must be implemented in accordance with medical standards. The container I here is for the storage of pure water. The water used in the oxygen production process usually has certain requirements. The water quality is required to be relatively pure, and it is necessary to protect the oxygen production cabin of the combined equipment from pollution and corrosion according to the application indicators, and protect the oxygen production effect and the service life of the equipment.

[0043] The calcium peroxide particles: The calcium peroxide particles used in oxygen production will be placed uniformly according to the material of the container, the size of the container and the reaction effect. Usually, calcium peroxide particles with high purity, uniform particle size and good reaction activity are required. The size of the particles will affect the rate and efficiency of the reaction. Smaller particles usually have a larger surface area and can react with water more fully and quickly to produce oxygen, but too small particles may cause the reaction to be difficult to control. The emergency oxygenation device is a small oxygen production device that uses calcium peroxide particles with a particle size of 0.5-2mm, which can not only ensure a certain reaction speed, but also be easy to operate and control. In practical applications, the specific selection of which particles also needs to be comprehensively determined based on factors such as the structure, usage scenario and demand of the oxygen production device.

[0044] The single-person enclosed cabin here refers to the amphibious acoustic and thermal concealed transfer device, which is an underwater single-person enclosed rescue and transfer device.

[0045] The above is a structural combination device for the reaction of calcium peroxide and water. Before use, the air tightness of the device needs to be checked to ensure safety and accuracy of the results. Safety here refers to the shortest and longest time that people who fall into the water at sea stay in the cabin. The oxygen volume and concentration of the equipment are formulated according to the scope of use. The equipment is equipped with a device that releases oxygen within a safe range when someone is present, and automatically shuts down when someone leaves to ensure the safety of the equipment.

[0046] In summary, the underwater emergency oxygen enrichment device is an additional configuration in a small mobile and amphibious sound and temperature concealed device. In order to design the cabin space in the emergency field, the shape comfort of the material appearance is not restricted by human comfort.

[0047] Specifically, its structural components and principles are as follows:

[0048] Structural components include: oxygen generation components, air circulation and carbon dioxide absorption components, emergency trigger and control mechanisms.

[0049] Oxygen generation component: It uses chemical oxygen production method, using calcium peroxide l to react with water to generate oxygen. The chemical equation for the reaction of calcium peroxide and water is: 2CaO2+2H2O=2Ca(OH)2+O2↑. This reaction does not require external energy supply, and can react and produce oxygen in a confined space. The calcium hydroxide produced by the reaction can also absorb part of the carbon dioxide, playing a certain role in purifying the air. Its components are made of materials that are comfortable for the human body and match the device. Its structure uses a space-saving and device-fitting method. It is simple to install and easy to take, install and connect.

[0050] Air circulation and carbon dioxide absorption components: A number of circulation honeycombs are provided on the first surface of the combined device to facilitate the discharge of fresh and humid air in the cabin. It promotes the flow of air in the space and enables oxygen to be more evenly distributed. At the same time, carbon dioxide absorption materials such as soda lime (mainly composed of calcium oxide and sodium hydroxide) are used to absorb the carbon dioxide exhaled by the trapped person.

[0051] Emergency trigger and control mechanism: A force-bearing valve button and elastic mechanism accessories are provided on the surface of the device. The force-bearing valve button is located at a position above the device that is easily accessible to the elbow, so that the elbow presses the valve to open it, and the arm is placed flat to close the valve. The elastic mechanism accessories are elastic configurations in the middle of the long shaft rod below the force-bearing surface plate, which play the role of opening and closing the septum elastic plate downward and upward. The device is equipped with an emergency trigger button, and when the trapped person finds that there is insufficient oxygen (for example, when he feels difficulty breathing, dizziness, etc.), he can manually trigger the device to start working. Its emergency trigger and control mechanism is used to combine with other combined devices in a simple and easy-to-implement way to achieve the effect of underwater first aid oxygenation. For those who do not have oxygen monitoring equipment in the cabin, the emergency trigger of this equipment and the personnel themselves who feel unwell can manually turn on the emergency trigger oxygenation to improve the lack of oxygen in the cabin.

[0052] Embodiment 2

[0053] This embodiment provides an underwater emergency oxygenation method based on a single-person enclosed space, including:

[0054] Device installation: The first aid oxygen enrichment device of the present invention is pre-installed in a single-person enclosed space (such as a small diving bell or an underwater operation cabin). The installation location should be selected where the trapped person's normal activities are not hindered and where air can circulate well, such as a suitable location near the top or side wall.

[0055] First, place the reaction container shell on the first layer side of the cabin of the amphibious acoustic temperature concealed transfer device, open the reaction container shell and place the reaction container at the bottom of the reaction container shell, unplug the container bottle mouth piston, add special pure water to the designated position, and then plug the container I bottle mouth with a piston, and then add calcium peroxide particles to the designated position in the container II, plug the air guide tube at the bottle mouth end, connect the air guide tube connection end to the tail end of the gas collection bottle, and the other end is connected to the upper end of the gas collection bottle through the air guide tube, and the upper end of the gas collection bottle is connected to the cabin top oxygen output cover at the upper end of the cabin through the air guide tube extension section. The reaction container also includes container I and container II for containing calcium peroxide and water. The separatory funnel: the liquid in container I flows into the separatory funnel and slowly drips water into container II to control the reaction rate.

[0056] The following are the airtightness operation steps and usage methods of the calcium peroxide and water reaction structure combination device:

[0057] 1. Operation steps:

[0058] Operation process: When the trapped person finds that there is insufficient oxygen or the device automatically detects that the oxygen concentration is too low / the carbon dioxide concentration is too high, the trigger device starts working. The chemical oxygen production component starts to produce oxygen, the air circulation device starts to evenly distribute the oxygen, and the carbon dioxide absorption component works synchronously to absorb carbon dioxide. At the same time, the sensor continuously monitors the gas concentration in the space to ensure that the environment is maintained in a relatively safe range until the rescuers arrive.

[0059] 1. Check the air tightness of the device: After connecting the device, close the piston of the separatory funnel, put one end of the air guide tube into the water, then cover the reaction container with your hand and observe whether there are bubbles coming out of the air guide tube in the water. If there are bubbles, it means that the air tightness of the device is good; if there are no bubbles, you need to check the device and reconnect it until it is airtight.

[0060] 2. Loading medicine: Add appropriate amount of calcium peroxide particles into container II.

[0061] 3. Fill the gas collecting bottle with water: Fill the gas collecting bottle with water, cover the bottle mouth with a glass sheet, and then turn it upside down in the sink.

[0062] 4. Add water to react: Open the force valve button and the liquid flows into the separatory funnel through container Ⅰ. Slowly add water to the bottle of container Ⅱ, control the dropping speed, and observe the reaction phenomenon.

[0063] 2. Usage:

[0064] 1. Control the dripping speed: adjust the liquid flow into the separatory funnel through the force valve button and the control panel bayonet, control the dripping speed of water, and thus control the reaction rate. If the reaction is too intense, the dripping speed can be appropriately slowed down; if the reaction is slow, the dripping speed can be appropriately accelerated, but be careful not to be too fast, so as to avoid excessive reaction and danger.

[0065] 2. Observe the phenomenon: During the reaction, observe the changes of particles in the container II bottle, whether bubbles are generated, etc. through the transparent viewing window of the liquid separation. At the same time, pay attention to the collection of gas in the gas collection bottle.

[0066] 3. Gas collection: The oxygen produced by the reaction will enter the gas collecting bottle through the gas duct, and the oxygen output hood on the top of the cabin will be opened for oxygen inhalation. This refers to the oxygen enrichment technology. The oxygen inhalation switch needs to be designed in combination with the switch installation position of the combined equipment structure.

[0067] 4. Test end treatment: After the test is completed, first close the force valve button and stop adding water to container II. Then properly handle the solution after the reaction and clean the reaction container. When testing the sealing of the container, you must pay attention to safety and follow the experimental operation specifications.

[0068] 3. Operation steps after human body entry

[0069] 1. The human body enters the amphibious acoustic and temperature concealed transfer device and lies flat. The healthy arms on both sides are raised, and one of the intact arms is bent, and the elbow joint is knocked downward on the stressed valve button to make the elastic column move parallely and pop open the buckle of the stressed valve control panel; the elbow joint is raised, and the arm is placed parallely downward on the stressed surface plate. Through the gravity of the arm, one end of the stressed column and the stressed middle partition is downward, and the gravity creates a fault opening between the stressed fixed middle partition and the stressed middle partition for liquid to flow in from the upper layer.

[0070] The underwater emergency oxygen enrichment scheme described in this embodiment is used to solve the emergency oxygen supply problem of people trapped underwater in a single-person confined space, thereby increasing the survival rate of the trapped people before rescue arrives.

[0071] Obviously, the above embodiments are merely examples for clear explanation and are not intended to limit the implementation methods. For those skilled in the art, other different forms of changes or modifications can be made based on the above description. It is not necessary and impossible to list all the implementation methods here. The obvious changes or modifications derived from these are still within the protection scope of the invention.

Claims

1. An underwater emergency oxygenation method based on a single-person enclosed space, the emergency oxygenation method is based on the design of an emergency oxygenation device mainly based on a reaction container of an amphibious acoustic and temperature concealed transfer device, characterized in that: The steps include: Step S1: The trigger device works; the trigger condition is that the trapped person actively operates or the sensor device automatically detects that the oxygen concentration is too low or the carbon dioxide concentration is too high; Step S2: Check the air tightness of the device; after connecting the emergency oxygen enrichment device, close the piston of the separatory funnel, put one end of the air guide tube into the water, and then cover the reaction container with your hand to observe whether there are bubbles coming out of the air guide tube in the water; Step S3: Loading the medicine; adding calcium peroxide particles into container II (4); Step S4: Fill the gas collecting bottle (21) with water; fill the gas collecting bottle (21) with water, cover the bottle mouth with a glass sheet, and then invert it in a water tank; Step S5: dripping water to carry out oxygen production reaction; open the force-bearing valve button (14) to allow the liquid to flow into the separatory funnel through container I (3), slowly drip water into the bottle of container II (4), control the dripping speed, and observe the reaction phenomenon.

2. The underwater first aid oxygenation method according to claim 1, characterized in that: In step S5, the dripping speed is controlled by adjusting the flow of liquid into the separatory funnel through the force-bearing valve button (14) and the control panel clamping port, so as to control the dripping speed of water and thus control the reaction rate.

3. The underwater first aid oxygenation method according to claim 1, characterized in that: In observing the reaction phenomenon in step S5, it is necessary to observe the changes in the particles in the bottle of container II (4) and whether bubbles are generated through the liquid separation transparent window (10); at the same time, observe the state of the gas collected in the gas collecting bottle (21).

4. The underwater first aid oxygenation method according to claim 1, characterized in that: After the above oxygen enrichment process is completed, the oxygen generated by the reaction enters the gas collecting bottle (21) through the air guide pipe, and the oxygen output cover (22) on the cabin top is opened for oxygen inhalation.

5. The underwater first aid oxygenation method according to claim 4, characterized in that: After the oxygenation step is completed, the pressure valve button (14) is closed first to stop adding water to the container II (4); then the reacted solution is placed in a waste bucket and the reaction container is cleaned.

6. An underwater emergency oxygenation device based on a single-person enclosed space, wherein the emergency oxygenation device is arranged based on a single-person enclosed cabin (25) of an amphibious acoustic and thermal concealed transfer device, characterized in that: The invention comprises a reaction container bottle (1), wherein the outer layer of the reaction container bottle (1) is provided with a protective reaction container shell (2), and the outer side of the reaction container shell (2) is also wrapped with a reaction container surface soft cover (5), and the internal space of the reaction container bottle (1) is divided into a container I (3) and a container II (4), and contains water and calcium peroxide respectively, and specifically, the container I (3) contains pure water (23), and the container II (4) contains calcium peroxide particles (24).

7. The underwater emergency oxygenation device according to claim 6, characterized in that: The port of the container I (3) is provided with a container bottle mouth I (6), and the container bottle mouth I (6) is provided with a container bottle mouth piston (8) for connection; at the same time, the port of the container II (4) is provided with a container bottle mouth II (7), and the container bottle mouth II (7) is provided with a container bottle mouth conduit (9) for connection.

8. The underwater emergency oxygenation device according to claim 6, characterized in that: A liquid separation transparent viewing window (10) is provided at one end of the same side of the reaction container bottle (1) and the reaction container shell (2), and a middle partition elastic plate (12), a fixing plate (11) and a sealing gasket (13) are provided in the gap between the container I (3) and the container II (4), all of which are arranged in the horizontal direction, and a sealing gasket (13) is provided on the contact surface of the middle partition elastic plate (12) and the fixing plate (11) at the contact end.

9. The method for manufacturing the simplified trolley bearing improving device according to claim 6, characterized in that: The surface of the reaction container shell (2) is provided with a force-bearing valve button (14), and the contact surface is provided with a force-bearing surface plate (17), and the force-bearing valve button (14) includes an elastic mechanism accessory (15) and an anti-corrosion column (16), one end of the elastic mechanism accessory (15) is connected to the middle of a long shaft rod below the force-bearing surface plate (17), and the middle septum elastic plate (12) is driven to open and close up and down through the long shaft rod; in addition, the anti-corrosion column (16) is arranged below the force-bearing surface plate (17), and passes through the elastic mechanism accessory (15) to be connected to the middle septum elastic plate (12).

10. The method for manufacturing the simplified trolley bearing improving device according to claim 8, characterized in that: A separating funnel is provided below the middle elastic plate (12), and the separating funnel includes a separating funnel opening (18) and a separating funnel scale (19). Meanwhile, a gas guide tube is provided at the bottle opening of the container I (3), and is connected to the gas collecting bottle (21), wherein the gas guide tube comprises a plurality of groups of gas guide tube extension sections (20) connected end to end; The output connection port of the gas collecting bottle (21) is connected to the cabin top oxygen output cover (22) through an air guide pipe.

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