Storage chamber of hazardous gas storage tank

Abstract

The invention discloses a hazardous gas storage tank storage chamber which comprises a storage chamber body, a monitoring mechanism and a gas exchange mechanism, and the monitoring mechanism is used for monitoring the concentration of hazardous gas in the storage chamber body; the ventilation mechanism comprises an air blowing assembly and an air exhaust assembly, when the monitoring mechanism monitors that the concentration of the hazardous gas in the storage chamber exceeds the standard, the air blowing assembly is used for blowing air into the storage chamber so as to improve the fluidity of the hazardous gas, and the air exhaust assembly is used for extracting the hazardous gas in the storage chamber so as to exhaust the hazardous gas out of the storage chamber; the device has the beneficial effects that the hazardous gas concentration is monitored in real time through the monitoring mechanism, the hazardous gas is continuously diluted and discharged through the gas exchange mechanism, the hazardous gas is prevented from being accumulated in the storage chamber to reach the combustible and explosive concentration, the material conditions for fire occurrence are eliminated from the source, and the safety of the storage chamber is improved.

Description

Technical Field

[0001] The present invention relates to the field of chemical production, and particularly to a storage room for dangerous gas storage tanks. Background Art

[0002] A storage room for dangerous gas storage tanks is a building space specifically designed for storing dangerous gas storage tanks. Concentrating the dangerous gas storage tanks in the storage room and isolating them from other areas can reduce the potential hazards caused by gas leakage to the surrounding environment and personnel, and prevent accidents from occurring.

[0003] Chinese invention with publication number CN115949273A proposes a fire and explosion-proof safety house for storing dangerous goods, including a house body. A storage room is provided inside the house body. A fire extinguishing device is provided on the top wall of the storage room. An air storage tank is provided on the side wall of the house body. An air extraction pump is provided on the air storage tank. An air inlet pipe is provided on the air extraction pump, and the air inlet pipe is connected to the fire extinguishing device.

[0004] Regarding the above related technologies, the following defects exist: extinguishing the fire when the fire occurs cannot eliminate the danger from the source, which may lead to frequent fires and low safety. Summary of the Invention

[0005] The purpose of the present invention is to overcome the above technical deficiencies and propose a storage room for dangerous gas storage tanks to solve the technical problem in the prior art of taking measures only when a fire occurs.

[0006] To achieve the above technical purpose, the technical solution of the present invention provides a storage room for dangerous gas storage tanks, including a storage room; a monitoring mechanism for monitoring the concentration of dangerous gases in the storage room; and, a ventilation mechanism, the ventilation mechanism includes a blowing component and an exhaust component. When the monitoring mechanism monitors that the concentration of dangerous gases in the storage room exceeds the standard, the blowing component is used to blow air into the storage room to improve the fluidity of the dangerous gases, and the exhaust component is used to extract the dangerous gases in the storage room to discharge the dangerous gases from the storage room.

[0007] In some embodiments, the blowing component includes a first air pump, a blowing air pipe, a blowing air head, and an adjusting component. The outlet of the first air pump is connected to the inlet of the blowing air pipe. The inlet of the blowing air head is ball-jointed to the outlet of the blowing air pipe. The outlet of the blowing air head faces into the storage room. The fixed end of the adjusting component is connected to the blowing air pipe, and the movable end of the adjusting component is connected to the blowing air head. The adjusting component is used to adjust the angle of the blowing air head according to the concentration of dangerous gases in different areas of the storage room.

[0008] In some embodiments, the adjusting assembly includes a motor, a driving gear, and a driven gear. The motor is installed on the air blowing pipe. The driving gear is connected to the output shaft of the motor. The driven gear is coaxially and rotatably connected to the outlet of the air blowing pipe. The driving gear meshes with the driven gear. The air blowing head is obliquely connected to the driven gear.

[0009] In some embodiments, the exhaust air assembly includes a second air pump, a plurality of exhaust air branch pipes, a plurality of valves, and an exhaust air main pipe. The plurality of valves are respectively installed on the plurality of exhaust air branch pipes. The plurality of exhaust air branch pipes are sequentially and spacedly connected in the storage chamber along the height direction of the storage chamber. The outlets of the plurality of exhaust air branch pipes are simultaneously communicated with the inlet of the exhaust air main pipe. The outlet of the exhaust air main pipe is communicated with the inlet of the second air pump. The monitoring mechanism includes a plurality of gas sensors. The plurality of gas sensors are respectively installed on the plurality of exhaust air branch pipes to monitor the concentration of hazardous gases at different heights in the storage chamber.

[0010] In some embodiments, the exhaust air assembly further includes a plurality of exhaust air bellows and a plurality of valve bodies. The plurality of exhaust air bellows are sequentially and spacedly connected in the storage chamber along the length direction of the storage chamber. The outlets of the plurality of exhaust air bellows are all communicated with the exhaust air main pipe. The plurality of valve bodies are respectively installed on the plurality of exhaust air bellows.

[0011] In some embodiments, the exhaust air assembly further includes an exhaust air head. The exhaust air head is installed at the inlet of the exhaust air bellows and is in a radial shape.

[0012] In some embodiments, the ventilation mechanism further includes a filter screen and a purification assembly. The filter screen is connected to the exhaust air head and the inlet of the exhaust air branch pipe. The outlet of the exhaust air main pipe is communicated with the inlet of the purification assembly.

[0013] In some embodiments, the storage chamber further includes a storage rack for placing storage tanks. The storage rack includes a bottom plate and a plurality of partition plates. The plurality of partition plates are sequentially and spacedly connected to the bottom plate along the length direction of the bottom plate. A placement cavity for placing storage tanks is formed between the bottom plate and the adjacent partition plates.

[0014] In some embodiments, the partition plate includes two first buffer plates. The two first buffer plates are slidably connected to the bottom plate along the length direction of the bottom plate. The storage rack further includes a first buffer airbag. The first buffer airbag is connected between the two first buffer plates.

[0015] In some embodiments, the bottom plate includes two second buffer plates. The second buffer plates are slidably connected to each other along the height direction of one of the second buffer plates. The first buffer plate is slidably connected to the upper second buffer plate along the length direction of the second buffer plate. The storage rack further includes a second buffer airbag, which is connected between the two second buffer plates. The second buffer airbag is in communication with a plurality of first buffer airbags, and both the second buffer airbag and the plurality of first buffer airbags are in a semi-saturated state.

[0016] Compared with the prior art, the beneficial effects of the present invention include: the monitoring mechanism monitors the concentration of hazardous gases in real time, and the ventilation mechanism continuously dilutes and discharges the hazardous gases, avoiding the accumulation of hazardous gases in the storage room to reach the flammable and explosive concentration, eliminating the material conditions for the occurrence of fires from the source, and improving the safety of the storage room. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 is a schematic diagram of the overall structure of the storage room provided by the present invention from the first perspective; Figure 2 is a schematic diagram of the overall structure of the storage room provided by the present invention from the second perspective; Figure 3 is provided by the present invention Figure 2 partial enlarged view of part A in; Figure 4 is a schematic diagram of the overall structure of the storage rack provided by the present invention.

[0018] Explanation of reference numerals: 1, storage room; 2, monitoring mechanism; 3, ventilation mechanism; 31, air blowing assembly; 311, first air pump; 312, air blowing pipe; 313, air blowing head; 314, adjustment assembly; 315, motor; 316, driving gear; 317, driven gear; 32, exhaust air assembly; 321, second air pump; 322, exhaust air branch pipe; 323, valve; 324, exhaust air main pipe; 325, exhaust air bellows; 326, valve body; 327, exhaust air head; 33, filter screen; 34, purification assembly; 4, storage rack; 41, bottom plate; 411, second buffer plate; 412, second buffer airbag; 42, partition board; 421, first buffer plate; 422, first buffer airbag; 43, placement cavity. DETAILED DESCRIPTION OF THE EMBODIMENTS

[0019] In order to make the objectives, technical solutions and advantages of the present invention clearer, the present invention will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are only used to explain the present invention and are not used to limit the present invention.

[0020] The present invention provides a storage room for a hazardous gas storage tank, and its structure is asFigure 1 - Figure 4 As shown in and

[0021] , it includes a storage room 1, a monitoring mechanism 2 and a ventilation mechanism 3.

[0021] The monitoring mechanism 2 is used to monitor the concentration of dangerous gases in the storage room 1.

[0022] The ventilation mechanism 3 includes a blower assembly 31 and an exhaust assembly 32. When the monitoring mechanism 2 detects that the concentration of dangerous gases in the storage room 1 exceeds the standard, the blower assembly 31 is used to blow air into the storage room 1 to enhance the fluidity of the dangerous gases, and the exhaust assembly 32 is used to extract the dangerous gases in the storage room 1 to discharge the dangerous gases from the storage room 1.

[0023] During use, various sensors in the monitoring mechanism 2 continuously monitor the concentration of dangerous gases in the storage room 1. When the monitoring mechanism 2 issues a signal of abnormal dangerous gas concentration, the blower assembly 31 is quickly started. Fresh air from the outside is continuously blown into the storage room 1. The blown fresh air forms an air current, which mixes with the original dangerous gases in the storage room 1, breaking the relative static state of the gases. While the blower assembly 31 is working, the exhaust assembly 32 is synchronously turned on. The dangerous gases mixed with fresh air in the storage room 1 are extracted, continuously reducing the overall concentration of dangerous gases in the storage room 1. Ensure that the concentration of dangerous gases in the storage room 1 is always below the safety threshold, reducing the possibility of fire occurrence from the source.

[0024] In the present invention, the concentration of dangerous gases is monitored in real time through the monitoring mechanism 2, and the dangerous gases are continuously diluted and discharged through the ventilation mechanism 3, avoiding the accumulation of dangerous gases in the storage room 1 to reach the flammable and explosive concentration, eliminating the material conditions for fire occurrence from the root, and improving the safety of the storage room 1.

[0025] In order to blow fresh air into the storage room 11, please refer to Figure 1 . Figure 1 In a preferred embodiment, the blower assembly 31 includes a first air pump 311, a blower pipe 312, a blower head 313 and an adjustment assembly 314. The outlet of the first air pump 311 is connected to the inlet of the blower pipe 312. The inlet of the blower head 313 is ball-jointed to the outlet of the blower pipe 312. The outlet of the blower head 313 faces into the storage room 1. The fixed end of the adjustment assembly 314 is connected to the blower pipe 312, and the movable end of the adjustment assembly 314 is connected to the blower head 313. The adjustment assembly 314 is used to adjust the angle of the blower head 313 according to the concentration of dangerous gases in different areas of the storage room 1.

[0026] During use, the first air pump 311 serves as the power core, sucking in and pressurizing the outside air. It quickly flows into the air duct 312 from the outlet of the first air pump 311. The air head 313 is connected to the air duct 312 by means of a spherical hinge, and this connection method endows the air head 313 with the ability to rotate with multiple degrees of freedom in space. The fixed end of the adjustment component 314 is firmly connected to the air duct 312, and the movable end is connected to the air head 313. When there are changes in the concentration of dangerous gases in different areas of the storage chamber 1, the adjustment component 314 adjusts the angle of the air head 313 to accurately blow air and disperse in this area.

[0027] To improve the air blowing range, please refer to Figure 3 , in a preferred embodiment, the adjustment component 314 includes a motor 315, a driving gear 316, and a driven gear 317. The motor 315 is installed on the air duct 312, the driving gear 316 is connected to the output shaft of the motor 315, the driven gear 317 is coaxially rotatably connected to the outlet of the air duct 312, the driving gear 316 meshes with the driven gear 317, and the air head 313 is obliquely connected to the driven gear 317.

[0028] During use, when the motor 315 is powered on and running, the driving gear 316 rotates synchronously with the output shaft to form a rotational power. The driven gear 317 is coaxially rotatably connected to the outlet of the air duct 312 and meshes with the driving gear 316. The rotation of the driving gear 316 drives the driven gear 317 to rotate through the meshing between teeth. The air head 313 is obliquely fixed to the driven gear 317, so the rotation of the driven gear 317 directly drives the air head 313 to rotate around the axis of the outlet of the air duct 312. Since the air head 313 and the air duct 312 are connected by a spherical hinge, the tilt angle of its installation will change the outlet orientation under the gear transmission.

[0029] To discharge the dangerous gases in the storage chamber 1, please refer to Figure 1 , in a preferred embodiment, the exhaust component 32 includes a second air pump 321, a plurality of exhaust branch pipes 322, a plurality of valves 323, and an exhaust main pipe 324. The plurality of valves 323 are respectively installed on the plurality of exhaust branch pipes 322. The plurality of exhaust branch pipes 322 are sequentially and spacedly connected inside the storage chamber 1 along the height direction of the storage chamber 1. The outlets of the plurality of exhaust branch pipes 322 are simultaneously connected to the inlet of the exhaust main pipe 324. The outlet of the exhaust main pipe 324 is connected to the inlet of the second air pump 321. The monitoring mechanism 2 includes a plurality of gas sensors, and the plurality of gas sensors are respectively installed on the plurality of exhaust branch pipes 322 to monitor the concentration of dangerous gases at different heights in the storage chamber 1.

[0030] During use, multiple gas sensors are respectively installed on the exhaust branch pipes 322 at different heights, capable of real-time monitoring of the concentration of hazardous gases at different heights in the storage room 1. When the gas sensors detect that the concentration of hazardous gases at a certain height or multiple heights exceeds the set threshold, the valves 323 on the corresponding height exhaust branch pipes 322 will be opened. After the valve 323 is opened, the second air pump 321 starts to work, causing the air in the storage room 1 to be sucked into the exhaust branch pipe 322, and then pumped to the second air pump 321 through the exhaust main pipe 324. The second air pump 321 discharges the extracted gas from the storage room 1 and transports it to a safe treatment area for subsequent treatment.

[0031] To further expand the exhaust range, please refer to Figure 1 , in a preferred embodiment, the exhaust assembly 32 further includes a plurality of exhaust bellows 325 and a plurality of valve bodies 326. The plurality of exhaust bellows 325 are sequentially and spacedly connected in the length direction of the storage room 1 inside the storage room 1. The outlets of the plurality of exhaust bellows 325 are all connected to the exhaust main pipe 324, and the plurality of valve bodies 326 are respectively installed on the plurality of exhaust bellows 325.

[0032] During use, the plurality of exhaust bellows 325 are sequentially and spacedly connected in the length direction of the storage room 1, capable of more comprehensively collecting hazardous gases in the length direction of the storage room 1. Moreover, the inlet position of the exhaust bellows 325 can be adjusted according to the position of the storage tank. When exhaust is required, the second air pump 321 starts, creating a negative pressure in the exhaust main pipe 324. Since the exhaust bellows 325 are connected to the exhaust main pipe 324, the negative pressure causes the hazardous gases in the storage room 1 to be sucked into the exhaust bellows 325, and then pumped out of the storage room 1 by the second air pump 321.

[0033] To increase the suction range, please refer to Figure 1 , in a preferred embodiment, the exhaust assembly 32 further includes an exhaust head 327. The exhaust head 327 is installed at the inlet of the exhaust bellows 325, and the exhaust head 327 is radially shaped.

[0034] During use, when the exhaust assembly 32 operates and a negative pressure is formed in the exhaust main pipe 324 due to the action of the second air pump 321, this negative pressure is transmitted to the exhaust head 327 through the exhaust bellows 325. The radial structure of the exhaust head 327 can increase the suction area, enabling the hazardous gases in a relatively large area around it to be sucked in.

[0035] To enable the hazardous gases to meet the emission standards, please refer to Figure 1 , in a preferred embodiment, the ventilation mechanism 3 further includes a filter screen 33 and a purification component 34. The filter screen 33 is connected to the inlet of the exhaust head 327 and the exhaust branch pipe 322, and the outlet of the exhaust main pipe 324 is connected to the inlet of the purification component 34.

[0036] During use, the filter screen 33 is connected to the air outlet head 327 and the inlet of the exhaust air branch pipe 322. When the hazardous gas is inhaled from the air outlet head 327 into the exhaust air branch pipe 322, the filter screen 33 will preliminarily filter the gas. Through the interception of the filter screen 33, it can ensure that the gas entering the exhaust air branch pipe 322 is relatively clean, improving the stability and reliability of the entire ventilation system. The purification component 34 is connected to the outlet of the main exhaust pipe 324, and the air containing hazardous gas discharged from the main exhaust pipe 324 enters the purification component 34. After being processed by the purification component 34, the hazardous gas is removed or converted into harmless substances, thereby realizing the purification of the discharged gas, reducing environmental pollution, and making the discharged gas meet the safety emission standards.

[0037] For the convenience of storing the storage tank, please refer to Figure 4 In a preferred embodiment, the storage room 1 further includes a storage rack 4 for placing the storage tank. The storage rack 4 includes a bottom plate 41 and a plurality of partition plates 42. The plurality of partition plates 42 are sequentially and spacedly connected to the bottom plate 41 along the length direction of the bottom plate 41, and a placement cavity 43 for placing the storage tank is formed between the bottom plate 41 and the adjacent partition plate 42.

[0038] During use, the bottom plate 41 serves as the basic part of the storage rack 4, providing a stable support surface for the storage tank. The plurality of partition plates 42 are sequentially and spacedly connected along the length direction of the bottom plate 41, dividing the space above the bottom plate 41 into a plurality of independent placement cavities 43. The size and shape of each placement cavity 43 are designed according to the size of the storage tank, and can exactly accommodate one storage tank. In this way, the storage tank can be positioned to prevent it from moving randomly in the storage room 1 and avoid damage caused by mutual collision.

[0039] To reduce the possibility of the storage tank explosion, please refer to Figure 4 In a preferred embodiment, the partition plate 42 includes two first buffer plates 421. The two first buffer plates 421 are slidably connected to the bottom plate 41 along the length direction of the bottom plate 41. The storage rack 4 further includes a first buffer airbag 422, and the first buffer airbag 422 is connected between the two first buffer plates 421.

[0040] During use, the first buffer airbag 422 is connected between the two first buffer plates 421, playing a role of buffering and shock absorption. When the storage tank is placed in the placement cavity 43, a certain impact force may be generated, or during storage, due to external vibrations and other factors, the storage tank will exert a force on the partition plate 42. At this time, the first buffer airbag 422 can absorb these impact forces through its own compression deformation. Thus, the impact force transmitted to the first buffer plate 421 is reduced, and the risk of damage to the storage tank due to collision or vibration is lowered.

[0041] To further reduce the possibility of the storage tank explosion, please refer to Figure 4 In a preferred embodiment, the bottom plate 41 includes two second buffer plates 411, the second buffer plate 411 is slidably connected to the other second buffer plate 411 along the height direction of the other second buffer plate 411, the first buffer plate 421 is slidably connected to the second buffer plate 411 located above along the length direction of the second buffer plate 411, the storage rack 4 further includes a second buffer airbag 412, the second buffer airbag 412 is connected between the two second buffer plates 411, the second buffer airbag 412 is in communication with a plurality of first buffer airbags 422, and the second buffer airbag 412 and the plurality of first buffer airbags 422 are all in a semi-saturated state.

[0042] During use, when a storage tank is placed on the storage rack 4, the weight of the storage tank will cause the second buffer plate 411 to be pressured, and then the second buffer airbag 412 will be squeezed, thus playing a buffering effect. Since the second buffer airbag 412 is in communication with the first buffer airbags 422, the gas in the squeezed second buffer airbag 412 will flow into the first buffer airbags 422, causing the first buffer airbags 422 to further expand, thereby providing stronger support and buffering for the side of the storage tank. Whether it is the vertical impact force generated when the storage tank is placed or the horizontal force generated due to vibration or other reasons, it can be effectively buffered and absorbed through the synergistic effect of the second buffer airbag 412 and the first buffer airbags 422. The semi-saturated state design enables the airbags to have sufficient space for expansion and compression to adapt to different degrees of impact forces. At the same time, it also ensures that the airbags can maintain a certain shape when there is no external force, providing basic support and fixation for the storage tank.

[0043] To better understand the present invention, the working principle of a storage room 1 for a dangerous gas storage tank, which is a technical solution of the present invention, will be described in detail below in combination with Figure 1 - Figure 4 Various sensors in the monitoring mechanism 2 continuously monitor the concentration of dangerous gases in the storage room 1. When the monitoring mechanism 2 issues a signal of abnormal dangerous gas concentration, the air blowing assembly 31 is quickly started. Fresh air from the outside is continuously blown into the storage room 1. The blown fresh air forms an air current, mixes with the original dangerous gases in the storage room 1, breaks the relative static state of the gases. While the air blowing assembly 31 is working, the exhaust air assembly 32 is synchronously turned on. The dangerous gases mixed with fresh air in the storage room 1 are extracted, continuously reducing the overall concentration of dangerous gases in the storage room 1. Ensure that the concentration of dangerous gases in the storage room 1 is always below the safety threshold, reducing the possibility of fire occurrence from the source.

[0044] The specific embodiments of the present invention described above do not limit the protection scope of the present invention. Any other corresponding changes and deformations made according to the technical concept of the present invention shall be included in the protection scope of the claims of the present invention.

Claims

1. A storage room for dangerous gas storage tanks, characterized in that, Comprising: Storage room; Monitoring mechanism, which is used to monitor the concentration of hazardous gases in the storage room; And, Ventilation mechanism, the ventilation mechanism includes a blower assembly and an exhaust assembly. When the monitoring mechanism monitors that the concentration of hazardous gases in the storage room exceeds the standard, the blower assembly is used to blow air into the storage room to improve the fluidity of the hazardous gases, and the exhaust assembly is used to extract the hazardous gases in the storage room to discharge the hazardous gases out of the storage room.

2. The hazardous gas storage tank storage room according to claim 1, characterized in that, The blower assembly includes a first air pump, a blower pipe, a blower head and an adjustment assembly. The outlet of the first air pump is communicated with the inlet of the blower pipe. The inlet of the blower head is ball-jointed at the outlet of the blower pipe. The outlet of the blower head faces into the storage room. The fixed end of the adjustment assembly is connected to the blower pipe, and the movable end of the adjustment assembly is connected to the blower head. The adjustment assembly is used to adjust the angle of the blower head according to the concentration of hazardous gases in different areas of the storage room.

3. The hazardous gas storage tank storage room according to claim 2, wherein, The adjustment assembly includes a motor, a driving gear and a driven gear. The motor is installed on the blower pipe. The driving gear is connected to the output shaft of the motor. The driven gear is coaxially rotatably connected to the outlet of the blower pipe. The driving gear meshes with the driven gear. The blower head is obliquely connected to the driven gear.

4. The storage chamber for hazardous gas storage tanks according to claim 1, characterized in that, The exhaust assembly includes a second air pump, a plurality of exhaust branch pipes, a plurality of valves and an exhaust main pipe. The plurality of valves are respectively installed on the plurality of exhaust branch pipes. The plurality of exhaust branch pipes are sequentially and spacedly connected in the storage room along the height direction of the storage room. The outlets of the plurality of exhaust branch pipes are simultaneously communicated with the inlet of the exhaust main pipe. The outlet of the exhaust main pipe is communicated with the inlet of the second air pump. The monitoring mechanism includes a plurality of gas sensors, and the plurality of gas sensors are respectively installed on the plurality of exhaust branch pipes to monitor the concentration of hazardous gases at different heights in the storage room.

5. The hazardous gas storage tank storage room according to claim 4, characterized in that The exhaust assembly further includes a plurality of exhaust bellows and a plurality of valve bodies. The plurality of exhaust bellows are sequentially and spacedly connected in the storage room along the length direction of the storage room. The outlets of the plurality of exhaust bellows are all communicated with the exhaust main pipe. The plurality of valve bodies are respectively installed on the plurality of exhaust bellows.

6. The hazardous gas storage tank storage room according to claim 5, wherein The exhaust assembly further includes an exhaust head, and the exhaust head is installed at the inlet of the exhaust bellows. The exhaust head is radially arranged.

7. The hazardous gas storage tank storage room according to claim 6, characterized in that, The ventilation mechanism further includes a filter screen and a purification assembly. The filter screen is connected to the exhaust head and the inlet of the exhaust branch pipe. The outlet of the exhaust main pipe is communicated with the inlet of the purification assembly.

8. The hazardous gas storage tank storage room according to claim 1, characterized in that, The storage room further includes a storage rack for placing storage tanks. The storage rack includes a bottom plate and a plurality of partition plates. The plurality of partition plates are sequentially and spacedly connected to the bottom plate along the length direction of the bottom plate. A placement cavity for placing storage tanks is formed between the bottom plate and the adjacent partition plates.

9. The hazardous gas storage tank storage room according to claim 8, characterized in that, The partition plate includes two first buffer plates. The two first buffer plates are slidably connected to the bottom plate along the length direction of the bottom plate. The storage rack further includes a first buffer airbag, and the first buffer airbag is connected between the two first buffer plates.

10. The storage chamber for dangerous gas storage tanks according to claim 9, characterized in that, The bottom plate includes two second buffer plates, the second buffer plate is slidably connected to the other second buffer plate along the height direction of the other second buffer plate, the first buffer plate is slidably connected to the second buffer plate located above along the length direction of the second buffer plate, the storage rack further includes a second buffer airbag, the second buffer airbag is connected between the two second buffer plates, the second buffer airbag is in communication with a plurality of first buffer airbags, and the second buffer airbag and the plurality of first buffer airbags are all in a semi-saturated state.

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