An ozone concentration detection device

Abstract

The present invention provides an ozone concentration detection device, which relates to the field of material detection technology and includes a detection device body. The detection device body includes a detection tank, a driving mechanism, a feeding mechanism and a sample storage assembly. A support frame is welded to the side of the detection tank, a base is welded to the bottom of the support frame, a top plate is welded to the top of the support frame, the driving mechanism passes through the middle position of the top plate, and the end of the driving mechanism is embedded in the interior of the detection tank. The feeding mechanism is inserted into the bottom of the detection tank, and the bottom of the feeding mechanism is welded to the surface of the base. The ozone concentration detection device can quickly detect the same sample through a rotation process to obtain ozone concentration data on multiple lines, thereby improving the averageness and effectiveness of the measurement, and can quickly switch the ozone concentration measurement states in ozone gas and liquid. The detection results of the two media will not interfere with each other, and a verification function for the detection results is also provided.

Description

Technical Field

[0001] The present invention relates to the technical field of material detection, in particular to ozone concentration detection equipment. Background Art

[0002] Ozone concentration measurement equipment plays a crucial role in environmental monitoring. It monitors atmospheric ozone concentration, providing a scientific basis for government policymaking and effectively reducing the impact of ozone pollution on human health. In the industrial sector, ozone concentration measurement equipment is used to monitor ozone concentration at the outlet of ozone generators, ensuring that ozone concentrations remain within preset ranges during production processes. This is crucial for applications such as drinking water disinfection, wastewater purification, air sterilization and purification in sterile environments, and food storage and preservation.

[0003] The ozone concentration detection equipment in the existing technology directly injects ozone gas into the interior of the detection container and completes the detection process with the help of ultraviolet spectrophotometry. However, since ozone gas is prone to decomposition when it is close to the surface of the object, and due to the diffusion phenomenon, there will be slight differences in the ozone concentration in different areas. Conventional ozone concentration detection equipment will also cause errors in the measurement results due to this problem. On the other hand, conventional ozone concentration detection equipment can only perform targeted detection on ozone gas or liquid containing ozone. If the concentration of ozone gas is detected after the liquid is detected, the detection error will be further increased due to the interference of humidity. Summary of the Invention

[0004] In view of the shortcomings of the existing technology, the purpose of the present invention is to provide an ozone concentration detection device to solve the problems raised in the above-mentioned background technology. The present invention can quickly detect the same sample and obtain ozone concentration data on multiple lines through a rotation process, thereby improving the averageness and effectiveness of the measurement, and can quickly switch the ozone concentration measurement status in ozone gas and liquid, while also providing a verification function for the detection results.

[0005] In order to achieve the above-mentioned purpose, the present invention is implemented through the following technical scheme: an ozone concentration detection device, including a detection device body, the detection device body including a detection tank, a driving mechanism, a feeding mechanism and a sample storage assembly, the side of the detection tank is welded with a support frame, the bottom of the support frame is welded with a base, the top of the support frame is welded with a top plate, the driving mechanism passes through the middle position of the top plate, and the end of the driving mechanism is embedded in the interior of the detection tank, the bottom of the detection tank is inserted with a feeding mechanism, the bottom of the feeding mechanism is welded to the surface of the base, the side of the base is welded with a sample storage assembly, and the sample storage assembly is used to store ozone gas samples to be tested, the feeding mechanism is used to draw the ozone gas inside the sample storage assembly into the interior of the detection tank, the end of the driving mechanism is inserted with an ultraviolet light source and a photoelectric sensor, and the outer ends of the ultraviolet light source and the photoelectric sensor are both against the inner wall of the detection tank.

[0006] Furthermore, a top barrier sleeve and a bottom barrier sleeve are welded inside the detection tank, and a detection interlayer is opened between the top barrier sleeve and the bottom barrier sleeve. A fixing plate is integrally formed on the side of the top barrier sleeve, and the fixing plate is welded and fixed to the inner wall of the detection tank. A rotation gap is provided between the top barrier sleeve, the bottom barrier sleeve and the inner wall of the detection tank, and an arc plate is welded on the inner wall of the rotation gap.

[0007] Furthermore, the bottom of the rotating gap is in a closed state, both ends of the top barrier sleeve and the bottom barrier sleeve are in an open state, the feeding mechanism penetrates upward from the bottom of the bottom barrier sleeve, the number of the arc plates is two, and the two arc plates are symmetrically arranged on both sides of the detection interlayer.

[0008] Furthermore, the driving mechanism includes a motor, a movable cover and a rotating ring, a driving shaft is inserted into the output end of the motor, a movable cover is welded to the end of the driving shaft, a sealing ring is integrally formed at the bottom of the movable cover, a linkage rod is integrally formed at the bottom of the sealing ring, and a rotating ring is integrally formed at the end of the linkage rod.

[0009] Furthermore, holes are provided on the surface of the rotating ring, and the ultraviolet light source and the photoelectric sensor pass through the holes on both sides of the rotating ring respectively. A shell is provided on the surface of the ultraviolet light source and the photoelectric sensor, a convex plate is welded on the side of the shell, a ball is embedded in the rear end of the shell, and a spring is welded on one side of the convex plate.

[0010] Furthermore, the other end of the spring is welded to the surface of the rotating ring, the ultraviolet light source and the photoelectric sensor are on the same horizontal axis, the ultraviolet light source and the photoelectric sensor are both pressed against the inner wall of the detection tank or the surface of the arc plate through the ball bearing, and the rotating ring is embedded in the interior of the detection interlayer.

[0011] Furthermore, the movable cover is pressed on the top of the detection tank, the outer shell of the motor is screwed to the surface of the top plate, the linkage rod passes through the inside of the rotating gap, and the sealing ring is embedded between the top barrier sleeve and the detection tank.

[0012] Furthermore, the feeding mechanism includes an electric lifting rod and a material storage interlayer. The top of the electric lifting rod is screwed with a splint, a sealing ring is attached to the edge of the splint, and the material storage interlayer is opened on the inner side of the splint.

[0013] Furthermore, a water inlet is provided on the side of the storage interlayer, a drainage hole is provided inside the storage interlayer, and the inside of the water inlet and the drainage hole are filled with sealing plugs, and the splint is embedded in the bottom barrier sleeve or the top barrier sleeve through the sealing ring on the side.

[0014] Furthermore, the sample storage assembly includes a sample storage tank and a docking plate, a plurality of air inlet holes are provided on the top surface of the fixed plate, an extraction pipe is inserted into the middle position of the inner side of the sample storage tank, a diffusion hole is provided on the surface of the extraction pipe, a delivery pipe is connected to the top of the extraction pipe, the end of the delivery pipe is inserted into the interior of the docking plate, and the interior of the docking plate is partially connected to the air inlet hole.

[0015] Beneficial effects of the present invention:

[0016] 1. The ozone concentration detection device controls the ultraviolet light source and photoelectric sensor at the bottom to rotate along the detection interlayer area through the driving mechanism at the top. With the help of this rotation process, the ozone concentration on multiple lines of the same sample can be quickly obtained. The sample can be detected and processed along multiple different lines in a short time, so that the final test results are averaged, thereby improving the validity of the measurement result data.

[0017] 2. The ozone concentration detection device draws ozone gas from the external sample storage assembly through the feeding mechanism at the bottom to realize the gas suction detection process. At the same time, it can also inject the liquid to be tested by moving downward, and then move upward to directly detect the ozone concentration in the liquid. Therefore, the measurement status of ozone gas and ozone concentration in liquid can be quickly switched, and the measurement of the two media will not affect the internal measurement environment.

[0018] 3. The ozone concentration detection equipment controls the rotation of the ultraviolet light source and the photoelectric sensor through a driving mechanism, and also cooperates with the arc plate provided inside the detection tank to push the ultraviolet light source and the photoelectric sensor. Therefore, after rotating to a fixed position, the distance between the ultraviolet light source and the photoelectric sensor can be changed. By shortening the distance, additional detection data is obtained, and by comparing the data with the average data obtained in the early stage, a verification function of the detection result can be provided. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 This is a schematic structural diagram of the appearance of an ozone concentration detection device of the present invention;

[0020] Figure 2 It is a structural schematic diagram of the driving mechanism part of the present invention;

[0021] Figure 3 Schematic diagram of the structure of the photoelectric sensor part of the present invention;

[0022] Figure 4 A cross-sectional view of the interior of the detection tank of the present invention;

[0023] Figure 5 It is a structural schematic diagram of the feeding mechanism part of the present invention;

[0024] Figure 6 This is a schematic structural diagram of the sample storage component of the present invention;

[0025] Figure 7 A top cross-sectional view of the detection tank of the present invention;

[0026] In the figure: 1. detection tank; 2. base; 3. support frame; 4. top plate; 5. driving mechanism; 6. feeding mechanism; 7. sample storage assembly; 8. motor; 9. driving shaft; 10. movable cover; 11. sealing ring; 12. linkage rod; 13. rotating ring; 14. ultraviolet light source; 15. photoelectric sensor; 16. shell; 17. ball bearing; 18. convex plate; 19. spring; 20. rotating gap; 21. bottom blocking sleeve; 22. top blocking sleeve; 23. fixing plate; 24. air inlet; 25. detection interlayer; 26. arc plate; 27. electric lifting rod; 28. splint; 29. sealing ring; 30. storage interlayer; 31. water inlet; 32. sample storage tank; 33. extraction pipe; 34. diffusion hole; 35. delivery pipe; 36. docking plate. DETAILED DESCRIPTION

[0027] In order to make the technical means, creative features, objectives and effects achieved by the present invention easier to understand, the present invention is further described below in conjunction with specific implementation methods.

[0028] See also Figures 1 to 7The present invention provides the following technical solutions: an ozone concentration detection device, comprising a detection device body, the detection device body comprising a detection tank 1, a driving mechanism 5, a feeding mechanism 6 and a sample storage assembly 7, the side of the detection tank 1 is welded with a support frame 3, the bottom of the support frame 3 is welded with a base 2, the top of the support frame 3 is welded with a top plate 4, the driving mechanism 5 passes through the middle position of the top plate 4, and the end of the driving mechanism 5 is embedded in the interior of the detection tank 1, the bottom of the detection tank 1 is inserted with a feeding mechanism 6, the bottom of the feeding mechanism 6 is welded to the surface of the base 2, the base 2 A sample storage assembly 7 is welded to the side, and the sample storage assembly 7 is used to store the ozone gas sample to be tested. The feeding mechanism 6 is used to draw the ozone gas inside the sample storage assembly 7 into the interior of the detection tank 1. The end of the driving mechanism 5 is inserted with an ultraviolet light source 14 and a photoelectric sensor 15, and the outer ends of the ultraviolet light source 14 and the photoelectric sensor 15 are both against the inner wall of the detection tank 1. The ozone concentration detection equipment can detect and process the current concentration of the ozone gas that has been delivered to the sample storage assembly 7, and can also be used to detect the ozone concentration in a liquid containing ozone.

[0029] The present invention is based on the fact that ozone molecules have a maximum absorption characteristic for ultraviolet light of a specific wavelength. Ozone has a maximum absorption coefficient for ultraviolet light with a wavelength of 254 nm. When ultraviolet light passes through the ozone layer, its intensity is attenuated. Therefore, when a stable ultraviolet light source 14 is used to generate ultraviolet light, the light filter built into the light source filters out ultraviolet light of other wavelengths, allowing only ultraviolet light with a wavelength of 254 nm to pass through. When this ultraviolet light passes through the ozone layer, its intensity is attenuated, and the degree of attenuation is proportional to the ozone concentration. The current ozone concentration can be determined by measuring the change in light intensity using a photoelectric sensor 15. Based on the above principle, when it is necessary to detect the current concentration of ozone gas inside the sample storage assembly 7, the feeding mechanism 6 at the bottom is directly controlled to move downward, so that the ozone gas inside the sample storage assembly 7 can be extracted and transported to the inside of the detection tank 1. At this time, the drawn-in ozone gas can be directly detected and processed by the ultraviolet light source 14 and the photoelectric sensor 15 at the bottom of the driving mechanism 5, and the driving mechanism 5 is started to control the ultraviolet light source 14 and the photoelectric sensor 15 to rotate, so that the ozone gas on different paths in the detection interlayer 25 can be efficiently detected multiple times, so as to obtain the final average value. If the ozone concentration in the liquid containing ozone is to be detected, the feeding mechanism 6 is directly moved downward, the liquid to be tested is injected, and then moved upward, and the ozone concentration in the liquid can be directly detected with the help of the ultraviolet light source 14 and the photoelectric sensor 15.

[0030] In this embodiment, a top barrier sleeve 22 and a bottom barrier sleeve 21 are welded to the interior of the detection tank 1, and a detection interlayer 25 is provided between the top barrier sleeve 22 and the bottom barrier sleeve 21. A fixing plate 23 is integrally formed on the side of the top barrier sleeve 22, and the fixing plate 23 is welded and fixed to the inner wall of the detection tank 1. A rotation gap 20 is provided between the top and bottom barrier sleeves 22, 21, and the inner wall of the detection tank 1, and an arcuate plate 26 is welded to the inner wall of the rotation gap 20. The bottom of the rotation gap 20 is closed, and both ends of the top and bottom barrier sleeves 22, 21 are open. The feeding mechanism 6 penetrates upward from below the bottom barrier sleeve 21. There are two arcuate plates 26, which are symmetrically arranged on both sides of the detection interlayer 25. While the driving mechanism 5 controls the rotation of the ultraviolet light source 14 and the photoelectric sensor 15, the arc-shaped plate 26 provided inside the detection tank 1 can also push the ultraviolet light source 14 and the photoelectric sensor 15. Therefore, after rotating to a fixed position, the distance between the ultraviolet light source 14 and the photoelectric sensor 15 can be changed. By shortening the distance, additional detection data can be obtained, and by comparing the data with the average data obtained in the early stage, a verification function of the detection result can be provided.

[0031] Specifically, as ultraviolet light passes through the ozone layer, its intensity decays, and the degree of decay is proportional to the ozone concentration. The photoelectric sensor 15 measures the change in light intensity to determine the current ozone concentration. Therefore, the length of space the ultraviolet light passes through will also proportionally change the final detection result. Therefore, when the top motor 8 is started, the ultraviolet light source 14 and the photoelectric sensor 15 are rotated via the movable cover 10, the linkage rod 12, and the rotating ring 13 at the bottom, until the balls 17 at the rear ends of the ultraviolet light source 14 and the photoelectric sensor 15 are pressed against the top area of the curved plate 26. At this point, the spring 19 is compressed, and the ultraviolet light source 14 and the photoelectric sensor 15 are brought closer to each other. At this time, the distance between the ultraviolet light beam emitted by the ultraviolet light source 14 and the photoelectric sensor 15 is shortened. By comparing the ozone gas concentration data detected after the shortening with the previously collected data, the previously collected concentration data can be verified.

[0032] In this embodiment, the drive mechanism 5 includes a motor 8, a movable cover plate 10, and a rotating ring 13. The output end of the motor 8 is plugged into a drive shaft 9, the end of which is welded to the movable cover plate 10. The bottom of the movable cover plate 10 is integrally formed with a sealing ring 11, the bottom of the sealing ring 11 is integrally formed with a linkage rod 12, and the end of the linkage rod 12 is integrally formed with a rotating ring 13. The surface of the rotating ring 13 is provided with holes, and the ultraviolet light source 14 and the photoelectric sensor 15 respectively pass through the holes on both sides of the rotating ring 13. The surfaces of the ultraviolet light source 14 and the photoelectric sensor 15 are both provided with a housing 16, the side of which is welded with a protruding plate 18, the rear end of which is embedded with a ball bearing 17, and one side of the protruding plate 18 is welded with a spring 19. The other end of the spring 19 is welded to the surface of the rotating ring 13. The ultraviolet light source 14 and the photoelectric sensor 15 are located on the same horizontal axis. Both the ultraviolet light source 14 and the photoelectric sensor 15 are pressed against the inner wall of the detection tank 1 or the surface of the curved plate 26 via the ball bearing 17. The rotating ring 13 is embedded in the interior of the detection interlayer 25. The driving mechanism 5 at the top controls the ultraviolet light source 14 and the photoelectric sensor 15 at the bottom to rotate along the detection interlayer 25. This rotation process allows the ozone concentration of multiple lines of the same sample to be quickly obtained. The sample can be tested and processed along multiple different lines in a short period of time, so that the final test results are averaged, thereby improving the validity of the measurement data.

[0033] Specifically, the movable cover 10 is always pressed on the top of the detection tank 1. By starting the motor 8 to drive the movable cover 10 and the linkage rod 12 to rotate, the rotating ring 13 at the bottom can be driven to rotate synchronously, and the ultraviolet light source 14 and the photoelectric sensor 15 are always symmetrically inserted on both sides of the rotating ring 13. Therefore, after the rotating ring 13 continues to rotate along the detection interlayer 25 area, the area where the ozone gas is detected by the ultraviolet light source 14 and the photoelectric sensor 15 will also continue to change, and finally the ozone concentration data on different paths inside the detection interlayer 25 is realized, and the multiple sets of data results obtained are averaged, so as to improve the accuracy of the final detection result.

[0034] In this embodiment, the movable cover 10 is pressed on the top of the detection tank 1, the outer shell of the motor 8 is screwed to the surface of the top plate 4, the linkage rod 12 passes through the inside of the rotating gap 20, and the sealing ring 11 is embedded between the top barrier sleeve 22 and the detection tank 1. The feeding mechanism 6 includes an electric lifting rod 27 and a material storage interlayer 30. The top of the electric lifting rod 27 is screwed with a splint 28, and a sealing ring 29 is attached to the edge of the splint 28. The material storage interlayer 30 is provided on the inner side of the splint 28. A water inlet 31 is provided on the side of the material storage interlayer 30, and a drainage hole is provided inside the material storage interlayer 30. The water inlet 31 and the drainage hole are both filled with sealing plugs. The splint 28 is embedded in the bottom barrier sleeve 21 or the top barrier sleeve 22 through the sealing ring 29 on the side. The sample storage assembly 7 includes a sample storage tank 32 and a docking plate 36. The top surface of the fixed plate 23 is provided with a plurality of air inlet holes 24. An extraction pipe 33 is inserted into the middle portion of the inner side of the sample storage tank 32. The surface of the extraction pipe 33 is provided with diffusion holes 34. A delivery pipe 35 is connected to the top of the extraction pipe 33. The end of the delivery pipe 35 is inserted into the interior of the docking plate 36, and the interior of the docking plate 36 is partially connected to the air inlet holes 24. Ozone gas is drawn into the interior of the external sample storage assembly 7 through the feeding mechanism 6 at the bottom, realizing the gas drawing detection process. At the same time, the ozone concentration in the liquid can be directly detected by injecting the liquid to be tested after the downward movement and then moving it upward. Therefore, the ozone gas and liquid ozone concentration measurement states can be quickly switched, and the measurement of the two media will not affect the internal measurement environment.

[0035] Specifically, by activating the feeding mechanism 6 and drawing ozone gas from the sample storage tank 32, the multiple diffusion holes 34 at the center ensure that the drawn ozone is evenly distributed from different depths, making the drawn ozone gas more balanced and avoiding excessive concentration of the drawing points, which would cause the final test result to fail to reflect the actual average concentration within the sample storage tank 32. Furthermore, when it is necessary to test the ozone concentration in the ozone-containing liquid, the electric lifting rod 27 is directly controlled to move the feeding mechanism 6 downward, injecting the test liquid into the storage interlayer 30 through the water injection port 31, and then controlling the feeding mechanism 6 to move upward until the storage interlayer 30 is moved to the same height as the detection interlayer 25. The ozone concentration in the liquid can then be directly tested using the ultraviolet light source 14 and the photoelectric sensor 15. The entire testing process does not cause the internal liquid to adhere to the inner wall of the detection tank 1, and the influence of humidity changes on the ozone concentration can also be avoided when the ozone gas is subsequently tested.

[0036] The basic principles, main features and advantages of the present invention are shown and described above. It is obvious to those skilled in the art that the present invention is not limited to the details of the above exemplary embodiments, and that the present invention can be implemented in other specific forms without departing from the spirit or basic features of the present invention.

[0037] In addition, it should be understood that although this specification is described in terms of implementation methods, not every implementation method contains only one independent technical solution. This narrative method of the specification is only for the sake of clarity. Those skilled in the art should regard the specification as a whole. The technical solutions in each embodiment can also be appropriately combined to form other implementation methods that can be understood by those skilled in the art.

Claims

1. An ozone concentration detection device, comprising a detection device body, characterized in that: The detection device body comprises a detection tank (1), a driving mechanism (5), a feeding mechanism (6) and a sample storage assembly (7); a support frame (3) is welded to the side of the detection tank (1); a base (2) is welded to the bottom of the support frame (3); a top plate (4) is welded to the top of the support frame (3); the driving mechanism (5) passes through the middle position of the top plate (4), and the end of the driving mechanism (5) is embedded in the interior of the detection tank (1); a feeding mechanism (6) is inserted at the bottom of the detection tank (1); the feeding mechanism ( The bottom of the driving mechanism (5) is welded to the surface of the base (2), the side of the base (2) is welded with a sample storage assembly (7), and the sample storage assembly (7) is used to store the ozone gas sample to be tested, the feeding mechanism (6) is used to draw the ozone gas inside the sample storage assembly (7) into the interior of the detection tank (1), and the end of the driving mechanism (5) is plugged with an ultraviolet light source (14) and a photoelectric sensor (15), and the outer ends of the ultraviolet light source (14) and the photoelectric sensor (15) are both against the inner wall of the detection tank (1).

2. An ozone concentration detection device according to claim 1, characterized in that: A top barrier sleeve (22) and a bottom barrier sleeve (21) are welded inside the detection tank (1), and a detection interlayer (25) is provided between the top barrier sleeve (22) and the bottom barrier sleeve (21). A fixing plate (23) is integrally formed on the side of the top barrier sleeve (22), and the fixing plate (23) is welded and fixed to the inner wall of the detection tank (1). A rotation gap (20) is provided between the top barrier sleeve (22), the bottom barrier sleeve (21) and the inner wall of the detection tank (1), and an arc-shaped plate (26) is welded on the inner wall of the rotation gap (20).

3. An ozone concentration detection device according to claim 2, characterized in that: The bottom of the rotating gap (20) is in a closed state, both ends of the top blocking sleeve (22) and the bottom blocking sleeve (21) are in an open state, the feeding mechanism (6) penetrates upward from the bottom of the bottom blocking sleeve (21), and the number of the arc-shaped plates (26) is two, and the two arc-shaped plates (26) are symmetrically arranged on both sides of the detection interlayer (25).

4. An ozone concentration detection device according to claim 2, characterized in that: The driving mechanism (5) comprises a motor (8), a movable cover plate (10) and a rotating ring (13); a driving shaft (9) is inserted into the output end of the motor (8); a movable cover plate (10) is welded to the end of the driving shaft (9); a sealing ring (11) is integrally formed at the bottom of the movable cover plate (10); a linkage rod (12) is integrally formed at the bottom of the sealing ring (11); and a rotating ring (13) is integrally formed at the end of the linkage rod (12).

5. An ozone concentration detection device according to claim 4, characterized in that: The surface of the rotating ring (13) is provided with holes, and the ultraviolet light source (14) and the photoelectric sensor (15) respectively pass through the inside of the holes on both sides of the rotating ring (13). The surfaces of the ultraviolet light source (14) and the photoelectric sensor (15) are both provided with a shell (16), a convex plate (18) is welded to the side of the shell (16), a ball (17) is embedded at the rear end of the shell (16), and a spring (19) is welded to one side of the convex plate (18).

6. An ozone concentration detection device according to claim 5, characterized in that: The other end of the spring (19) is welded to the surface of the rotating ring (13), the ultraviolet light source (14) and the photoelectric sensor (15) are located on the same horizontal axis, the ultraviolet light source (14) and the photoelectric sensor (15) are both pressed against the inner wall of the detection tank (1) or the surface of the arc plate (26) through the ball (17), and the rotating ring (13) is embedded in the interior of the detection interlayer (25).

7. An ozone concentration detection device according to claim 6, characterized in that: The movable cover (10) is pressed against the top of the detection tank (1), the outer shell of the motor (8) is screwed onto the surface of the top plate (4), the linkage rod (12) passes through the inside of the rotating gap (20), and the sealing ring (11) is embedded between the top barrier sleeve (22) and the detection tank (1).

8. The ozone concentration detection device according to claim 2, characterized in that: The feeding mechanism (6) comprises an electric lifting rod (27) and a material storage interlayer (30). The top of the electric lifting rod (27) is screwed with a clamping plate (28). A sealing ring (29) is attached to the edge of the clamping plate (28). The inner side of the clamping plate (28) is provided with a material storage interlayer (30).

9. An ozone concentration detection device according to claim 8, characterized in that: A water inlet (31) is provided on the side of the material storage interlayer (30), a drainage hole is provided inside the material storage interlayer (30), and the insides of the water inlet (31) and the drainage hole are filled with sealing plugs. The splint (28) is embedded into the bottom barrier sleeve (21) or the top barrier sleeve (22) through the sealing ring (29) on the side.

10. An ozone concentration detection device according to claim 9, characterized in that: The sample storage assembly (7) includes a sample storage tank (32) and a docking plate (36). A plurality of air inlet holes (24) are provided on the top of the surface of the fixing plate (23). An extraction pipe (33) is inserted into the middle position of the inner side of the sample storage tank (32). A diffusion hole (34) is provided on the surface of the extraction pipe (33). A delivery pipe (35) is connected to the top of the extraction pipe (33). The end of the delivery pipe (35) is inserted into the interior of the docking plate (36), and the interior of the docking plate (36) is partially connected to the air inlet holes (24).

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