Carbon monoxide digestion mechanism for safety production

Abstract

The invention discloses a carbon monoxide digestion mechanism for safety production, and relates to the field of atmosphere control and pollution abatement, the carbon monoxide digestion mechanism comprises a preset base body, the preset base body is mounted on the outer side of an external exhaust pipeline, and a reserved cavity is formed in the outer wall of the preset base body; a carbon monoxide digestion agent is stored in the reserved cavity, a reserved movable assembly is rotationally connected to the middle end of the inner side of the preset base body, and an external eccentric wheel is fixedly connected to the outer side of the shaft end of the reserved movable assembly. The carbon monoxide digestion mechanism for safety production is provided with the guiding supply structure, the guiding supply structure is used for self-adaptively supplying and discharging a digestion agent according to a gas discharging state, and the carbon monoxide digestion agent is discharged without manual operation or control of driving equipment; the self-adaptive digestion agent discharge treatment work is carried out according to the flow of the discharged gas in the equipment, so that the discharged gas is effectively purified, the atmospheric environment is prevented from being polluted, and the environment treatment work is effectively carried out.

Description

Technical Field

[0001] This invention relates to the field of atmospheric control and pollution treatment technology, specifically to a carbon monoxide decomposition mechanism for safe production. Background Technology

[0002] In the process of pollution control and safe production, the decomposition of carbon monoxide generated by industrial production is one of the more stringent steps. When the emission concentration of carbon monoxide exceeds the standard, it will harm human health and air quality. Therefore, it is necessary to use appropriate carbon monoxide decomposition equipment to carry out the reaction. Among them, micron-sized transition metal oxide eliminators, with a particle diameter of 10-50 microns, adsorb carbon monoxide and oxygen through surface pores and catalytically convert them into harmless products. They are widely applicable to spatial environments such as industrial safe production. For example, the patent with announcement number CN110394053B describes a method and device for the rapid elimination of carbon monoxide, which belongs to the field of toxic gas purification technology. It involves spraying solid catalyst powder into a space rich in carbon monoxide, utilizing the mechanical or Brownian motion of the catalyst powder and the principle of catalytic oxidation of carbon monoxide to convert it into carbon dioxide, thus achieving rapid elimination of carbon monoxide. The device includes a catalyst powder storage tank, a spraying device, a pressure relief valve, a vacuum / filling port, and a siphon pipe. The upper end of the catalyst powder storage tank is the tank opening, on which the spraying device is installed. The siphon pipe is located inside the catalyst powder storage tank, and its upper end is connected to the spraying device. For example, the patent with announcement number CN217795498U discloses an integrated carbon dioxide digestion to carbon monoxide production device. The carbon dioxide reduction tower is divided into three reaction spaces from top to bottom by separation baffles and filter baffles: an adsorption chamber, a buffer chamber, and a catalytic conversion chamber. The catalytic conversion chamber is a fluidized bed reactor and is filled with carbon powder and microsphere catalyst. The carbon dioxide pressurization pump is connected to the bottom of the catalytic conversion chamber. One end of the circulation pipeline is connected to the catalytic conversion chamber and the other end is connected to the carbon dioxide pressurization pump. The purity control valve is a four-way valve with a carbon monoxide concentration sensor and is installed on the circulation pipeline. One end of the purification pipeline is connected to the purity control valve and the other end is connected to the buffer chamber. For example, patent CN112973442A discloses a system and method for separating, converting, and digesting carbon dioxide gas. The system includes a raw material gas storage device, a carbon dioxide separation and purification device, and a carbon dioxide digestion device. The raw material gas storage device includes a flow meter, a carbon dioxide analyzer, and a raw material gas storage tank. The carbon dioxide separation and purification device includes a gas purification tower, a heat exchanger, a compressor, a gas separation tower, a refrigerated dryer, a vacuum pump, and a carbon dioxide buffer tank. The carbon dioxide digestion device includes a fan, a carbon monoxide catalytic tower, a catalytic gas buffer tank, a carbon monoxide purification tank, a compressor, and a carbon monoxide storage tank. All devices are connected sequentially via pipelines. Most of the aforementioned existing technologies improve the overall structure. However, existing carbon monoxide decomposition mechanisms for safe production require manual or driven equipment control to discharge carbon monoxide decomposition agents during operation. They cannot adaptively discharge decomposition agents based on the flow rate of the emitted gas, thus limiting their application. Summary of the Invention

[0003] The purpose of this invention is to provide a carbon monoxide decomposition mechanism for safe production, in order to solve the problem mentioned in the background art that, during operation, the emission of carbon monoxide decomposition agent requires manual or driven equipment control, and it cannot adaptively handle the decomposition agent emission based on the flow rate of the emitted gas in the equipment.

[0004] To achieve the above objectives, the present invention provides the following technical solution: a carbon monoxide digestion mechanism for safe production, comprising a preset base, the preset base being installed on the outside of an external exhaust pipe, and a reserved cavity being provided on the inner wall of the preset base; the reserved cavity storing carbon monoxide digester, and a reserved movable component being rotatably connected to the middle of the inner side of the preset base, an external eccentric wheel being fixedly connected to the outer side of the shaft end of the reserved movable component, and the external eccentric wheel being disposed on the inner side of the preset base; an exhaust channel being opened on the inner wall of the preset base, and the exhaust channel being interconnected with the reserved cavity; a guiding supply structure being provided between the reserved cavity and the preset base, the guiding supply structure adaptively supplying and discharging the digester according to the gas emission state.

[0005] Furthermore, the guiding supply structure is provided with a built-in isolation mesh, which is installed inside the discharge channel. A closed docking component is nested inside the discharge channel, and the closed docking component is nested and docked with the inner wall of the preset substrate.

[0006] Furthermore, an abutting connector is nested on the inner wall of the preset base, and the lower end of the abutting connector corresponds to the outer side of the external eccentric wheel. A connecting steel wire rope component is connected to the lower end of the abutting connector, and the connecting steel wire rope component passes through the interior of the preset base. At the same time, the end of the connecting steel wire rope component is connected to the upper end of the closed connector.

[0007] Furthermore, the reserved active component drives the external eccentric wheel to form a rotating structure along the inner side of the preset base. When the outer end of the external eccentric wheel contacts the contact docking member, the contact docking member is subjected to force and forms a sliding structure along the interior of the preset base. The contact docking member subjected to force will drive the closed docking member to move synchronously through the docking wire rope component, thereby adaptively regulating the connection state of the discharge channel at the lower end of the reserved cavity according to the discharge rate of the flow rate.

[0008] Furthermore, the contacting docking member drives the closed docking member to form a traction structure through the docking wire rope component, and the closed docking member slides vertically along the interior of the discharge channel.

[0009] Furthermore, an airflow diffusion structure is provided on the inner side of the preset substrate to perform diffusion-type multi-directional emission treatment of the emitted digester through the airflow diffusion structure; the airflow diffusion structure is provided with a vertically reserved corrugated liquid bladder, and the vertically reserved corrugated liquid bladder is connected to the inner side of the preset substrate, and the lower end of the vertically reserved corrugated liquid bladder corresponds to the upper end of the contacting part. An air storage cavity is opened at the lower outer side of the preset substrate, and a horizontally placed corrugated reserved liquid bladder is bonded to the inner wall of the air storage cavity. An air supply hose is connected to the outer side of the horizontally placed corrugated reserved liquid bladder, and the upper end of the air supply hose is connected to the vertically reserved corrugated liquid bladder.

[0010] Furthermore, a reserved through hole is provided at the lower end of the gas storage cavity, and a fitting piston is nested inside the gas storage cavity. A supply docking pipe is provided through the outer side of the gas storage cavity. A nested docking liquid bladder is bonded to the inner side of the right end of the gas storage cavity, and a supply reserved pipe is docked to the outer side of the nested docking liquid bladder. An elastic docking layer is docked to the lower end of the inner side of the reserved cavity, and an internal docking liquid bladder is docked to the lower end of the elastic docking layer. The internal docking liquid bladder and the end of the supply reserved pipe are docked to each other. A vertical reserved component is fixedly connected to the outer side of the elastic docking layer.

[0011] Furthermore, during the upward movement of the contacting docking component, pressure is simultaneously applied to the vertically reserved corrugated liquid bladder in contact, and the vertically reserved corrugated liquid bladder supplies air to the horizontally reserved corrugated liquid bladder at the bottom through the air supply hose. The horizontally reserved corrugated liquid bladder expands and pushes the outer fitting piston component to move along the inner side of the air storage cavity. When the fitting piston component moves to the right side of the reserved through hole under force, the interior of the air storage cavity is in a closed state, and the air storage cavity will cooperate with the fitting piston component to supply airflow to the outside through the supply docking pipe.

[0012] Furthermore, when the fitting piston moves to contact the nested docking liquid bladder, the pressurized nested docking liquid bladder supplies liquid to the interior of the built-in docking liquid bladder through the supply reserved tube. The built-in docking liquid bladder pushes the outer elastic docking layer to deform and cooperate with the vertical reserved part to bulge upward.

[0013] Compared with the prior art, the beneficial effects of the present invention are: This carbon monoxide decomposition mechanism for safe production is equipped with a guiding supply structure. This structure adaptively supplies and discharges the decomposition agent based on the gas emission status. As the pre-set substrate undergoes high-pressure exhaust treatment, the reserved movable component inside rotates under pressure, causing the outer eccentric wheel to rotate synchronously along the inner side of the pre-set substrate. As the outer end of the outer eccentric wheel reciprocates until it contacts the contact docking component, the force-bearing contact docking component drives the closed docking component to move synchronously via the docking wire rope component. This adaptively regulates the connection status of the lower end of the pre-set cavity's discharge channel according to the emission rate, eliminating the need for manual or drive equipment control. The adaptive decomposition agent discharge based on the flow rate of the emitted gas effectively purifies the emitted gas, contributing to environmental governance and improving the device's practicality. Furthermore, an airflow diffusion structure is provided to diffuse the emitted digester in multiple directions. As the contacting part reciprocates under force, it moves vertically inside the preset substrate. When it comes into contact with the vertically reserved corrugated liquid bladder, it is simultaneously pressurized, allowing the vertically reserved corrugated liquid bladder to supply work through the air supply hose. This causes the expanded horizontally placed corrugated liquid bladder to push the fitting piston part to move along the inner side of the gas storage cavity. When the fitting piston part moves to the right side of the reserved through hole, the inside of the gas storage cavity is in a closed state. At this time, the gas storage cavity will cooperate with the continuous inward movement of the fitting piston part to apply pressure, and the supply connecting pipe will supply airflow to the outside. This, in conjunction with the supply connecting pipe, guides the diffusion and emission of the digester, making it more efficient to contact the emitted exhaust gas with a larger contact area, thereby improving its reaction range and efficiency. Furthermore, during the continuous pressure operation of the piston component, when its outer side contacts the nested docking liquid bladder, it will continuously apply pressure to the nested docking liquid bladder, thereby supplying it to the interior of the end docking liquid bladder through the supply reserved tube. This causes the expanding interior docking liquid bladder to push the outer elastic docking layer to deform, making it bulge upwards. This, together with the vertical reserved component, performs bottom anti-deposition and anti-clogging treatment on the digestant stored in the reserved cavity, ensuring its continuous emission stability. Attached Figure Description

[0014] Figure 1 This is a three-dimensional structural diagram of the present invention; Figure 2 This is a schematic diagram of the three-dimensional structure of the reserved active components in this invention; Figure 3 This is a schematic diagram of the three-dimensional structure of the cavity reserved in this invention; Figure 4 For the present invention Figure 3 A magnified schematic diagram of the central part of the structure; Figure 5 This is a schematic diagram of the three-dimensional structure of the external eccentric wheel of the present invention; Figure 6 This is a schematic diagram of the half-section three-dimensional structure of the present invention; Figure 7 This is a three-dimensional structural diagram of the vertical reserved component of the present invention; Figure 8 This is a schematic diagram of the three-dimensional structure of the vertically reserved corrugated liquid bladder of the present invention; Figure 9 This is a schematic diagram of the three-dimensional structure of the reserved through hole in this invention; Figure 10 This is a schematic diagram of the three-dimensional structure of the connecting pipe for the present invention.

[0015] In the diagram: 1. Pre-set base; 2. Reserved movable component; 3. External eccentric wheel; 4. Reserved cavity; 5. Discharge channel; 6. Built-in isolation mesh; 7. Contact docking component; 8. Docking wire rope component; 9. Sealed docking component; 10. Vertical reserved corrugated liquid bladder; 11. Air supply hose; 12. Horizontal corrugated reserved liquid bladder; 13. Fitting piston component; 14. Reserved through hole; 15. Air storage cavity; 16. Supply docking pipe; 17. Nested docking liquid bladder; 18. Supply reserved pipe; 19. Built-in docking liquid bladder; 20. Elastic docking layer; 21. Vertical reserved component. Detailed Implementation

[0016] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0017] Example 1: Please refer to Figures 1-10 The present invention provides the following technical solution: a carbon monoxide digestion mechanism for safe production, which addresses the technical problem that the emission of carbon monoxide digester requires manual or driven equipment control and cannot adaptively perform digester emission treatment based on the flow rate of the emitted gas in the equipment. The mechanism discloses: a preset base 1 installed outside an external exhaust pipe, with a reserved cavity 4 on the inner wall of the preset base 1; the reserved cavity 4 stores carbon monoxide digester, and a reserved movable component 2 is rotatably connected to the inner middle of the preset base 1; an external eccentric wheel 3 is fixedly connected to the outer side of the shaft end of the reserved movable component 2, and the external eccentric wheel 3 is located inside the preset base 1; an emission channel 5 is opened on the inner wall of the preset base 1, and the emission channel 5 is interconnected with the reserved cavity 4; a guiding supply structure is provided between the reserved cavity 4 and the preset base 1, and the guiding supply structure adaptively performs digester supply and emission work according to the gas emission state.

[0018] The guiding supply structure is equipped with a built-in isolation net 6, which is installed inside the discharge channel 5. A closed docking component 9 is nested inside the discharge channel 5, and this closed docking component 9 is nested and docked with the inner wall of the preset base 1. An abutting docking component 7 is nested inside the inner wall of the preset base 1, with the lower end of the abutting docking component 7 corresponding to the outer side of the external eccentric wheel 3. A docking wire rope component 8 is connected to the lower end of the abutting docking component 7, and the docking wire rope component 8 runs through the interior of the preset base 1. Simultaneously, the end of the docking wire rope component 8 is connected to the upper end of the closed docking component 9. A reserved movable component 2 drives the external eccentric wheel 3 to form a rotating structure along the inner side of the preset base 1. When the outer end of the external eccentric wheel 3 contacts the abutting docking component 7, the abutting docking component 7 is subjected to force and forms a sliding structure along the interior of the preset base 1. The abutting docking component 7, through the docking wire rope component 8, drives the closed docking component 9 to rotate. The closed docking component 9 forms a traction structure and slides vertically along the inside of the emission channel 5. After the equipment is installed on the outside of the industrial exhaust pipe, as the pipeline is subjected to high-pressure exhaust treatment, the reserved movable component 2 on its inner side will rotate under force, thereby driving the outer eccentric wheel 3 on the outer side to rotate synchronously along the inner side of the preset base 1. As the outer end of the outer eccentric wheel 3 moves back and forth until it contacts the contact docking component 7, the contact docking component 7 under force will drive the closed docking component 9 to move synchronously through the docking wire rope component 8. Thus, the connection state of the emission channel 5 at the lower end of the reserved cavity 4 is adaptively adjusted according to the emission rate of the flow rate, and the emission treatment is carried out without manual or drive equipment control. The emission of carbon monoxide decomposer is carried out adaptively according to the flow rate of the emission gas in the equipment, effectively purifying the emission gas and avoiding pollution to the atmospheric environment.

[0019] Example 2: Based on Example 1, an airflow diffusion structure is also disclosed, the specific structure of which is as follows: An airflow diffusion structure is provided on the inner side of the preset substrate 1, and the emitted digester is treated by diffusion in a multi-directional manner through the airflow diffusion structure. The airflow diffusion structure is provided with a vertically reserved corrugated liquid bladder 10, which is connected to the inner side of the preset base 1. The lower end of the vertically reserved corrugated liquid bladder 10 corresponds to the upper end of the contacting docking part 7. An air storage cavity 15 is opened at the lower outer side of the preset base 1. A horizontally placed corrugated reserved liquid bladder 12 is bonded to the inner wall of the air storage cavity 15. An air supply hose 11 is connected to the outer side of the horizontally placed corrugated reserved liquid bladder 12. At the same time, the upper end of the air supply hose 11 is connected to the vertically reserved corrugated liquid bladder 10. A reserved through hole 14 is opened at the lower end of the air storage cavity 15. A fitting piston part 13 is nested inside the air storage cavity 15. A supply docking pipe 16 is provided through the outer side of the air storage cavity 15.A nested docking liquid bladder 17 is bonded to the inner right end of the gas storage cavity 15, and a supply pre-reserved pipe 18 is docked to the outer side of the nested docking liquid bladder 17. An elastic docking layer 20 is docked to the lower inner side of the pre-reserved cavity 4, and an internal docking liquid bladder 19 is docked to the lower end of the elastic docking layer 20. The internal docking liquid bladder 19 is docked to the end of the supply pre-reserved pipe 18. A vertical pre-reserved component 21 is fixedly connected to the outer side of the elastic docking layer 20. During the upward movement of the contact docking component 7, pressure is simultaneously applied to the contacting vertical pre-reserved corrugated liquid bladder 10, and the vertical pre-reserved corrugated liquid bladder 10 is supplied to the bottom horizontal corrugated pre-reserved liquid bladder 12 through the gas supply hose 11. The horizontally placed corrugated pre-reserved liquid bladder 12 expands, pushing the outer fitting piston 13 to move along the inner side of the air storage cavity 15. When the fitting piston 13 moves to the right side of the pre-reserved through hole 14, the interior of the air storage cavity 15 is in a closed state, and the air storage cavity 15 will cooperate with the fitting piston 13 to supply airflow to the outside through the supply docking pipe 16. When the fitting piston 13 moves to contact the nested docking liquid bladder 17, the pressurized nested docking liquid bladder 17 supplies air to the interior docking liquid bladder 19 through the supply pre-reserved pipe 18. The interior docking liquid bladder 19 pushes the outer elastic docking layer 20 to deform and cooperate with the vertical pre-reserved part 21 to protrude upwards. As the contacting part 7 reciprocates under force, it moves vertically within the preset base 1. When it comes into contact with the vertically reserved corrugated liquid bladder 10, it applies pressure synchronously, allowing the vertically reserved corrugated liquid bladder 10 to supply air through the air supply hose 11 and the horizontally placed corrugated liquid bladder 12. This causes the inflated horizontally placed corrugated liquid bladder 12 to push the fitting piston part 13 to move along the inner side of the air storage cavity 15. When the fitting piston part 13 moves to the right side of the reserved through hole 14, the interior of the air storage cavity 15 is in a closed state. At this time, the air storage cavity 15 will cooperate with the continuous inward movement of the fitting piston part 13 to apply pressure, and air will be supplied outward by the supply connecting pipe 16. The supply system works in conjunction with the supply connector 16 to guide and diffuse the digester for emission treatment, allowing it to contact the emitted exhaust gas more efficiently with a larger contact area. During the continuous pressure operation of the piston 13, when its outer side contacts the nested docking liquid bladder 17, it continuously applies pressure to the nested docking liquid bladder 17, thereby supplying it through the supply pre-reserved pipe 18 to the inner docking liquid bladder 19 at the end. This causes the expanding inner docking liquid bladder 19 to push the outer elastic docking layer 20 to deform, causing it to bulge upwards and, in conjunction with the vertical pre-reserved part 21, to prevent the digester accumulated inside the pre-reserved cavity 4 from depositing and clogging at the bottom.

[0020] In the description of this invention, it should be noted that, unless otherwise explicitly specified and limited, the terms "connected" and "linked" should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral connection; they can refer to a mechanical connection or an electrical connection; they can refer to a direct connection or an indirect connection through an intermediate medium. Those skilled in the art can understand the specific meaning of the above terms in this invention based on the specific circumstances.

[0021] Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A carbon monoxide elimination mechanism for safe production, comprising a preset base (1), wherein the preset base (1) is installed on the outside of an external exhaust pipe, and the inner wall of the preset base (1) is provided with a reserved cavity (4). Its features are: The reserved cavity (4) stores carbon monoxide digester inside, and a reserved movable component (2) is rotatably connected to the inner middle of the preset base (1). An external eccentric wheel (3) is fixedly connected to the outer side of the shaft end of the reserved movable component (2), and the external eccentric wheel (3) is set inside the preset base (1). An exhaust channel (5) is opened on the inner wall of the preset base (1), and the exhaust channel (5) is connected to the reserved cavity (4). A guide supply structure is set between the reserved cavity (4) and the preset base (1). The digester is supplied and discharged according to the gas emission state through the guide supply structure.

2. The carbon monoxide digestion mechanism for safe production according to claim 1, characterized in that: The guiding supply structure is provided with a built-in isolation mesh (6), and the built-in isolation mesh (6) is installed on the inner side of the discharge channel (5). The discharge channel (5) is nested with a closed docking part (9), and the closed docking part (9) is nested and docked with the inner wall of the preset base (1).

3. The carbon monoxide digestion mechanism for safe production according to claim 2, characterized in that: The inner wall of the preset base (1) is fitted with a contacting part (7), and the lower end of the contacting part (7) corresponds to the outer side of the external eccentric wheel (3). The lower end of the contacting part (7) is connected to a connecting wire rope component (8), and the connecting wire rope component (8) passes through the interior of the preset base (1). At the same time, the end of the connecting wire rope component (8) is connected to the upper end of the closed contacting part (9).

4. The carbon monoxide digestion mechanism for safe production according to claim 3, characterized in that: The reserved active component (2) drives the external eccentric wheel (3) to form a rotating structure along the inner side of the preset base (1), and when the outer end of the external eccentric wheel (3) contacts the contacting docking part (7), the contacting docking part (7) is subjected to force to form a sliding structure along the interior of the preset base (1).

5. A carbon monoxide digestion mechanism for safe production according to claim 4, characterized in that: The contacting docking member (7) drives the closed docking member (9) to form a traction structure through the docking wire rope component (8), and the closed docking member (9) slides vertically along the inside of the discharge channel (5).

6. A carbon monoxide digestion mechanism for safe production according to claim 3, characterized in that: The inner side of the preset substrate (1) is provided with an airflow diffusion structure, which performs diffusion-type multi-directional emission treatment on the emitted digester through the airflow diffusion structure. The airflow diffusion structure is provided with a vertically reserved corrugated liquid bladder (10), and the vertically reserved corrugated liquid bladder (10) is connected to the inner side of the preset base (1), and the lower end of the vertically reserved corrugated liquid bladder (10) corresponds to the upper end of the contacting docking part (7). An air storage cavity (15) is opened at the lower outer side of the preset base (1), and a horizontally placed corrugated reserved liquid bladder (12) is bonded to the inner wall of the air storage cavity (15), and an air supply hose (11) is connected to the outer side of the horizontally placed corrugated reserved liquid bladder (12), while the upper end of the air supply hose (11) is connected to the vertically reserved corrugated liquid bladder (10).

7. A carbon monoxide digestion mechanism for safe production according to claim 6, characterized in that: The lower end of the gas storage cavity (15) is provided with a reserved through hole (14), and a fitting piston (13) is nested inside the gas storage cavity (15). A supply connecting pipe (16) is provided through the outer side of the gas storage cavity (15). The right inner side of the gas storage cavity (15) is bonded with a nested docking liquid bladder (17), and the outer side of the nested docking liquid bladder (17) is docked with a supply reserved tube (18). The lower inner side of the reserved cavity (4) is docked with an elastic docking layer (20), and the lower end of the elastic docking layer (20) is docked with an internal docking liquid bladder (19). The internal docking liquid bladder (19) and the end of the supply reserved tube (18) are docked with each other. The outer side of the elastic docking layer (20) is fixedly connected with a vertical reserved component (21).

8. A carbon monoxide digestion mechanism for safe production according to claim 7, characterized in that: During the upward movement of the contacting docking piece (7), pressure is simultaneously applied to the vertically reserved corrugated liquid bladder (10) in contact, and the vertically reserved corrugated liquid bladder (10) supplies the gas to the horizontally placed corrugated liquid bladder (12) at the bottom through the air supply hose (11). The horizontally placed corrugated liquid bladder (12) expands and pushes the outer fitting piston piece (13) to move along the inner side of the gas storage cavity (15). When the fitting piston piece (13) is moved to the right side of the reserved through hole (14) under force, the interior of the gas storage cavity (15) is in a closed state, and the gas storage cavity (15) will cooperate with the fitting piston piece (13) to supply airflow to the outside through the supply docking pipe (16).

9. A carbon monoxide digestion mechanism for safe production according to claim 8, characterized in that: When the fitting piston (13) moves to contact the nested docking liquid bladder (17), the pressurized nested docking liquid bladder (17) supplies the liquid to the interior docking liquid bladder (19) through the supply reserved tube (18). The interior docking liquid bladder (19) pushes the outer elastic docking layer (20) to deform and cooperate with the vertical reserved part (21) to bulge upward.

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