An ozone catalytic oxidation industrial wastewater deep treatment device and use method

Abstract

The present invention relates to the technical field of industrial wastewater treatment, specifically to an ozone catalytic oxidation industrial wastewater deep treatment device and a method of use, comprising two parallel tracks, a crossbeam slidably connected to the track, and a plurality of aeration tubes are arranged on the lower side of the crossbeam. The ozone catalytic oxidation industrial wastewater deep treatment device and method of use, through the use of the triangular plate using its own bevel edge to squeeze the slide forward along the annular groove, so that the slide bends the elastic plate to fit the ring frame, thereby controlling the linear arrangement with the elastic plate to form an arc arrangement that adapts to different widths, so that the device can adapt to water tanks of different sizes, compared with the existing rope pulling bending, the above-mentioned triangular plate can cooperate with the slide and bend the elastic plate along the ring frame, so that the bending of the elastic plate is achieved through a rigid structure, which can effectively avoid the change of the bending width caused by external contact with the control part, and has better adjustment stability.

Description

Technical Field

[0001] The invention relates to the technical field of industrial wastewater treatment, and in particular to an ozone catalytic oxidation industrial wastewater deep treatment device and a use method thereof. Background Art

[0002] Since ozone has a strong oxidizing ability, it is often used as an oxidant to purify and disinfect industrial wastewater. Its core goal is to remove organic pollutants in wastewater and reduce the concentration of pollutants such as COD to achieve the purpose of wastewater treatment and environmental protection.

[0003] The existing patent (Announcement No.: CN118084177B) discloses an ozone catalytic oxidation device for wastewater treatment, including a moving component, an adjusting component installed on the inner wall of the moving component, an aeration component installed on the outer wall of the adjusting component, the moving component is used to drive the adjusting component and the aeration component to move, the adjusting component is used to adjust the length of the aeration component, and the aeration component is used to transport ozone into the wastewater pool. The above-mentioned prior art uses rope pulling to drive the steel sheet to deform, which will interfere with the adjustment effect due to external collision or inertia, and the water pressure in the deep water area is greater than that in the shallow water, the ozone release efficiency is different, and the upper side of the aeration pipe is prone to excessive ineffective aeration.

[0004] In view of this, we propose an ozone catalytic oxidation industrial wastewater deep treatment device and a method of use. Summary of the invention

[0005] The purpose of the present invention is to provide an ozone catalytic oxidation industrial wastewater deep treatment device and a method of use, so as to solve the problems proposed in the above background technology that the existing technology uses rope pulling to drive the steel sheet to deform, which will interfere with the adjustment effect due to external collision or inertia, and the water pressure in the deep water area is greater than that in the shallow water, the ozone release efficiency is different, and the upper side of the aeration pipe is prone to excessive ineffective aeration. In order to achieve the above purpose, the present invention provides the following technical solutions: an ozone catalytic oxidation industrial wastewater deep treatment device, comprising two tracks arranged parallel to each other, a crossbeam slidably connected to the track, and a plurality of aeration pipes are arranged on the lower side of the crossbeam, an air pump is fixedly arranged on the crossbeam, and a row pipe connected to the air pump is fixedly installed on the crossbeam, and the row pipe is connected to each aeration pipe through a hose.

[0006] Width controllers are arranged on the crossbeam and the aeration pipe.

[0007] The width controller includes a ring frame arranged on the lower side of the beam, and the ring frame is fixedly connected to the beam through a T-shaped structure bracket, a motor is fixedly installed on the front side of the ring frame, and a gear is fixedly connected to the rotating shaft of the motor, a sliding sleeve is fixedly arranged on the front side of the ring frame, and a rack meshing with the gear is slidably connected in the sliding sleeve.

[0008] The top edge of the ring frame is provided with an annular groove, and two U-shaped slides are slidably connected in the annular groove. The rack is located between the two slides, and one end of the rack away from the motor is fixedly connected with a triangular plate matched with the slide.

[0009] An elastic plate is fixedly mounted on the side surface of the ring frame, and the upper edge of the elastic plate is located on the inner side of the sliding frame.

[0010] The aeration pipe is fixedly arranged on the surface of the elastic plate on the side away from the ring frame.

[0011] A pressure difference prevention component is arranged in the aeration pipe.

[0012] Preferably, the pressure difference prevention component comprises a ring rail fixedly arranged inside the aeration pipe, and a pneumatic turbine is rotatably connected inside the ring rail, and a rotating shaft is fixedly connected to the bottom end of the wheel shaft of the pneumatic turbine.

[0013] A plurality of groups of ribs are fixedly connected to the inner wall of the aeration pipe, wherein a single group of ribs is provided with two, a round seat is arranged between the single group of ribs, and the round seat is fixedly connected to the rotating shaft.

[0014] The side surface of the round seat is provided with an air storage port, and the upper and lower sides of the round seat are both provided with cutouts communicating with the air storage port.

[0015] Aeration holes matching with the air storage port are provided on the surface of the aeration pipe on the side away from the air storage port.

[0016] The round seat and the aeration pipe are provided with compressed air and water blocking components.

[0017] Preferably, the compressed air water-blocking component includes an extrusion chamber opened along the inside of the round seat, and the extrusion chamber is connected to the air storage port, a pressure plug is slidably connected to the inside of the extrusion chamber, and a protrusion is fixedly connected to the side surface of the pressure plug, a vertical groove connected to the outside is opened on the side wall of the extrusion chamber, the protrusion passes through the vertical groove, and an annular groove matching the protrusion is opened on the inner wall of the aeration pipe, and the annular groove forms a V-shaped groove downward away from the aeration hole.

[0018] A concave plate is fixedly installed at the junction of the extrusion cavity and the air storage port, and an elastic film is arranged on the surface of the concave plate on the side opposite to the air storage port, and the elastic film is fixedly connected to the concave plate at its four sides.

[0019] The lower side of the concave plate surface is provided with an air hole connecting the inner side of the elastic membrane and the extrusion cavity.

[0020] Preferably, a pipe seat corresponding to the aeration pipe is fixedly provided on the elastic plate, and the aeration pipe is mounted on the pipe seat by bolts.

[0021] Preferably, a roller that matches the triangular plate is rotatably provided on the slide.

[0022] Preferably, the wheel shaft of the turbine is connected to the rotating shaft via a coupling.

[0023] Preferably, a waterproof adhesive film is fixedly arranged between the pressing plug and the extrusion cavity.

[0024] A method for using an ozone catalytic oxidation industrial wastewater deep treatment device comprises the following steps:

[0025] S1. The track drives the crossbeam to move, and the aeration pipe moves synchronously in the industrial wastewater. During this process, the air pump uses the aeration pipe to inject ozone into the wastewater for catalytic oxidation treatment;

[0026] S2. Before the crossbeam moves, the motor is started to drive the rack and the triangular plate forward through the gear. During this process, the triangular plate uses its own bevel to squeeze the slide forward along the annular groove, so that the slide bends the elastic plate to fit the ring frame, thereby controlling the linearly arranged elastic plates to form an arc arrangement that adapts to different widths, so that the device can adapt to water tanks of different sizes;

[0027] S3. When the air pump injects ozone into the aeration pipe, the gas passes through the pneumatic turbine to drive it to rotate, and drives the round seat to rotate through the rotating shaft. When the air storage port is displaced from the aeration hole, the ozone in the aeration pipe enters the air storage port along the cutout. After the round seat rotates to align the air storage port with the aeration hole, the retaining edge closes the cutout, so that the air storage port is only connected to the aeration hole, and the ozone is released into the wastewater along the aeration hole;

[0028] S4. During the rotation of the round seat, the convex block moves synchronously along the annular groove. When the air storage port is aligned with the aeration hole, the convex block reaches the V-shaped groove and drives the pressure plug to move downward along the groove body, so that the pressure plug squeezes the air along the extrusion cavity and bulges the elastic membrane along the air hole, so that the elastic membrane expands in the air storage port and squeezes out the ozone along the aeration hole.

[0029] Compared with the prior art, the present invention has the following beneficial effects:

[0030] In the present invention, the triangular plate utilizes its own oblique edge to squeeze the slide forward along the annular groove, so that the slide bends the elastic plate to fit the ring frame, thereby controlling the linearly arranged elastic plates to form an arc arrangement that adapts to different widths, so that the device can adapt to water tanks of different sizes. Compared with the existing rope pulling and bending, the above-mentioned triangular plate can cooperate with the slide and bend the elastic plate along the ring frame, so that the bending of the elastic plate is achieved through a rigid structure, which can effectively avoid changes in the bending width caused by external contact with the control member and has better adjustment stability.

[0031] In the present invention, the round seat is driven to rotate by the rotating shaft. When the air storage port is displaced from the aeration hole, the ozone in the aeration pipe enters the air storage port along the incision. After the round seat rotates to align the air storage port with the aeration hole, the retaining edge closes the incision, so that the air storage port is only connected to the aeration hole, and the ozone is released into the wastewater along the aeration hole. Compared with the normal connection between the existing pipe and the water pool, the round seat can utilize the position change of the air storage port to achieve alternating connection with the aeration pipe and the aeration hole, first taking in air and then exhausting air. On the one hand, when the air pump takes air into the aeration pipe, the ozone transported downward will not increase the load of the air pump due to the pressure of the water depth. On the other hand, the round seat can be used to equally distribute the ozone at different water depths for release, which can avoid the aeration pipe being directly connected to the water pool, so that the water pressure at different depths causes the release rate of shallow ozone to be greater than the release rate of deep ozone, thereby ensuring effective contact between ozone and wastewater.

[0032] In the present invention, the round seat is rotated to drive the protrusion to move synchronously along the annular groove. When the air storage port is aligned with the aeration hole, the protrusion reaches the V-shaped groove and drives the pressure plug to move downward along the groove body, so that the pressure plug squeezes the air along the extrusion cavity and bulges the elastic membrane along the air hole, so that the elastic membrane expands in the air storage port and squeezes the ozone along the aeration hole. In this way, the volume change of the air storage port is realized by the cooperation of the pressure plug and the V-shaped groove. On the one hand, ozone can be actively pressed out to the outside to improve the release efficiency. On the other hand, the air storage port can be blocked to prevent wastewater from the outside from entering the air storage port along the aeration hole and affecting the subsequent entry of ozone. BRIEF DESCRIPTION OF THE DRAWINGS

[0033] Figure 1 It is a schematic diagram of the three-dimensional structure of the present invention;

[0034] Figure 2 It is a structural schematic diagram of the crossbeam and the aeration pipe of the present invention;

[0035] Figure 3 It is an exploded view of the ring frame, rack and triangle plate of the present invention;

[0036] Figure 4 It is a structural schematic diagram of the aeration tube of the present invention;

[0037] Figure 5 An exploded view of the aeration pipe and the pneumatic turbine of the present invention;

[0038] Figure 6 The explosion of the aeration pipe and the round seat of the present invention Figure 1 ;

[0039] Figure 7 The explosion of the aeration pipe and the round seat of the present invention Figure 2 ;

[0040] Figure 8 It is a three-dimensional structural cross-sectional view of the round seat of the present invention;

[0041] Fig. 9It is a side sectional view of the round seat of the present invention;

[0042] Fig.10 It is an exploded view of the round seat, the press plug, the concave plate and the elastic membrane of the present invention.

[0043] In the figure: 1, track; 2, crossbeam; 3, aeration pipe; 4, air pump; 5, row pipe; 6, width controller; 61, ring frame; 62, bracket; 63, motor; 64, gear; 65, sleeve; 66, rack; 67, annular groove; 68, slide; 69, triangle plate; 610, elastic plate; 611, anti-pressure difference component; 6111, ring track; 6112, pneumatic turbine; 6113, rotating shaft; 6114, rib; 6115, round seat; 6116, air storage port; 6117, incision; 6118, aeration hole; 6119, compressed air and water blocking component; 61191, extrusion cavity; 61192, pressure plug; 61193, protrusion; 61194, vertical groove; 61195, annular groove; 61196, V-shaped groove; 61197, concave plate; 61198, elastic membrane; 61199, air hole. DETAILED DESCRIPTION

[0044] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technical staff in this field without creative work are within the scope of protection of the present invention.

[0045] See also Figures 1 to 10 The present invention provides a technical solution: an ozone catalytic oxidation industrial wastewater deep treatment device, comprising two tracks 1 arranged parallel to each other, a crossbeam 2 is slidably connected to the track 1, and a plurality of aeration pipes 3 are arranged on the lower side of the crossbeam 2, an air delivery pump 4 is fixedly arranged on the crossbeam 2, and a row pipe 5 connected to the air delivery pump 4 is fixedly installed on the crossbeam 2, and the row pipe 5 is connected to each aeration pipe 3 through a hose, the track 1 drives the crossbeam 2 to move, and makes the aeration pipe 3 move synchronously in the industrial wastewater, during which the air delivery pump 4 uses the aeration pipe 3 to inject ozone into the wastewater for catalytic oxidation treatment.

[0046] Width controllers 6 are provided on the crossbeam 2 and the aeration pipe 3 .

[0047] The width controller 6 includes a ring frame 61 arranged on the lower side of the beam 2, and the ring frame 61 is fixedly connected to the beam 2 through a T-shaped bracket 62, a motor 63 is fixedly installed on the front side of the ring frame 61, and a gear 64 is fixedly connected to the rotating shaft of the motor 63, a sliding sleeve 65 is fixedly arranged on the front side of the ring frame 61, and a rack 66 meshing with the gear 64 is slidably connected in the sliding sleeve 65.

[0048] An annular groove 67 is provided on the top edge of the ring frame 61, and two U-shaped slides 68 are slidably connected in the annular groove 67. The rack 66 is located between the two slides 68, and the end of the rack 66 away from the motor 63 is fixedly connected to a triangular plate 69 that cooperates with the slide 68. When the motor 63 is started, the rack 66 and the triangular plate 69 are driven forward through the gear 64. During this process, the triangular plate 69 uses its own bevel edge to squeeze the slide 68 forward along the annular groove 67.

[0049] An elastic plate 610 is fixedly mounted on the side surface of the ring frame 61 , and the upper edge of the elastic plate 610 is located inside the sliding frame 68 .

[0050] The aeration pipe 3 is fixedly arranged on the surface of the elastic plate 610 away from the ring frame 61. When the slide 68 moves forward along the annular groove 67, the elastic plate 610 is bent to fit the ring frame 61, thereby controlling the linear arrangement with the elastic plate 610 to form an arc arrangement that adapts to different widths, so that the device can adapt to water tanks of different sizes.

[0051] A pressure difference prevention component 611 is arranged in the aeration pipe 3 .

[0052] In this embodiment, Figure 1 , Figure 2 , Figure 3 , Figure 4 , Figures 5 to 10 As shown, the pressure difference prevention component 611 includes a ring rail 6111 fixedly arranged inside the aeration pipe 3, and a pneumatic turbine 6112 is rotatably connected inside the ring rail 6111, and a rotating shaft 6113 is fixedly connected to the bottom end of the wheel axle of the pneumatic turbine 6112.

[0053] A plurality of groups of ribs 6114 are fixedly connected to the inner wall of the aeration pipe 3, and a single group of ribs 6114 is provided with two. A round seat 6115 is provided between the single groups of ribs 6114, and the round seat 6115 is fixedly connected to the rotating shaft 6113. When the air pump 4 injects ozone into the aeration pipe 3, the gas passes through the pneumatic turbine 6112 to drive it to rotate, and drives the round seat 6115 to rotate through the rotating shaft 6113.

[0054] An air storage port 6116 is provided on the side surface of the round seat 6115 , and cutouts 6117 communicating with the air storage port 6116 are provided on both the upper and lower sides of the round seat 6115 .

[0055] An aeration hole 6118 matching with the air port 6116 is provided on the surface of the aeration tube 3 facing away from the air port 6116. When the air port 6116 is displaced from the aeration hole 6118, the ozone in the aeration tube 3 enters the air port 6116 along the cutout 6117. After the round seat 6115 is rotated to align the air port 6116 with the aeration hole 6118, the retaining edge 6114 closes the cutout 6117, so that the air port 6116 is only connected to the aeration hole 6118, and the ozone is released into the wastewater along the aeration hole 6118.

[0056] A compressed air water blocking component 6119 is provided in the round seat 6115 and the aeration pipe 3.

[0057] In this embodiment, Figure 1 , Figure 2 , Figure 3 , Figure 4 , Figures 5 to 10 As shown, the compressed air water blocking component 6119 includes an extrusion chamber 61191 opened along the inside of the round seat 6115, and the extrusion chamber 61191 is connected to the air storage port 6116, a pressure plug 61192 is slidably connected in the extrusion chamber 61191, and a convex block 61193 is fixedly connected to the side surface of the pressure plug 61192, a vertical groove 61194 connected to the outside is opened on the side wall of the extrusion chamber 61191, and the convex block 61193 passes through the vertical groove 61194, and a pressure plug 61192 is opened on the inner wall of the aeration pipe 3. An annular groove 61195 cooperates with the protrusion 61193, and a V-shaped groove 61196 is formed downward on the side of the annular groove 61195 away from the aeration hole 6118. During the rotation of the round seat 6115, the protrusion 61193 moves synchronously along the annular groove 61195. When the air storage port 6116 is aligned with the aeration hole 6118, the protrusion 61193 reaches the V-shaped groove 61196, and drives the pressure plug 61192 to move downward along the groove body, so that the pressure plug 61192 squeezes the air along the extrusion cavity 61191.

[0058] A concave plate 61197 is fixedly installed at the junction of the extrusion cavity 61191 and the air storage port 6116, and an elastic membrane 61198 is provided on the surface of the concave plate 61197 on the side opposite to the air storage port 6116, and the elastic membrane 61198 is fixedly connected to the concave plate 61197 at its four sides.

[0059] An air hole 61199 connecting the inner side of the elastic membrane 61198 and the extrusion chamber 61191 is provided on the lower side of the concave plate 61197. When the pressure plug 61192 squeezes the air along the extrusion chamber 61191, the elastic membrane 61198 bulges along the air hole 61199, causing the elastic membrane 61198 to expand in the air storage port 6116, squeezing out the ozone along the aeration hole 6118.

[0060] In this embodiment, Figure 1 , Figure 2 , Figure 3 , Figure 4 , Figures 5 to 10 As shown, a pipe seat corresponding to the aeration pipe 3 is fixedly provided on the elastic plate 610, and the aeration pipe 3 is installed on the pipe seat by bolts. The aeration pipe 3 can be quickly disassembled and assembled from the pipe seat for daily maintenance.

[0061] In this embodiment, Figure 1 , Figure 2 , Figure 3 , Figure 4 , Figures 5 to 10 As shown, a roller that cooperates with the triangular plate 69 is rotatably provided on the slide 68. When the triangular plate 69 squeezes the slide 68, the roller can cause the two to roll and rub against each other, thereby avoiding excessive wear between the triangular plate 69 and the slide 68.

[0062] In this embodiment, Figure 1 , Figure 2 , Figure 3 , Figure 4 , Figures 5 to 10 As shown, the axle of the turbine is connected to the rotating shaft 6113 via a coupling. After disconnecting the coupling, the user can inspect and replace the turbine or the rotating shaft 6113 and the round seat 6115.

[0063] In this embodiment, Figure 1 , Figure 2 , Figure 3 , Figure 4 , Figures 5 to 10 As shown, a waterproof film is fixedly arranged between the pressure plug 61192 and the extrusion chamber 61191, and the waterproof film does not affect the up and down movement of the pressure plug 61192. After the round seat 6115 is rotated to align the vertical groove 61194 with the aeration hole 6118, the waterproof film can prevent waste water from entering the extrusion chamber 61191 along the aeration hole 6118 and the vertical groove 61194 to affect subsequent use.

[0064] A method for using an ozone catalytic oxidation industrial wastewater deep treatment device comprises the following steps:

[0065] S1, the track 1 drives the crossbeam 2 to move, and makes the aeration pipe 3 move synchronously in the industrial wastewater. During this process, the air pump 4 uses the aeration pipe 3 to inject ozone into the wastewater for catalytic oxidation treatment.

[0066] S2. Before the crossbeam 2 moves, the motor 63 is started, and the gear 64 drives the rack 66 and the triangular plate 69 to move forward. During this process, the triangular plate 69 uses its own bevel to squeeze the slide 68 to move forward along the annular groove 67, so that the slide 68 bends the elastic plate 610 to fit the ring frame 61, thereby controlling the linear arrangement with the elastic plate 610 to form an arc arrangement that adapts to different widths, so that the device can adapt to water tanks of different sizes.

[0067] S3. During the process of the air pump 4 injecting ozone into the aeration pipe 3, the gas passes through the pneumatic turbine 6112 to drive it to rotate, and drives the round seat 6115 to rotate through the rotating shaft 6113. When the air storage port 6116 is displaced from the aeration hole 6118, the ozone in the aeration pipe 3 enters the air storage port 6116 along the incision 6117. After the round seat 6115 rotates to align the air storage port 6116 with the aeration hole 6118, the retaining edge 6114 closes the incision 6117, so that the air storage port 6116 is only connected to the aeration hole 6118, and the ozone is released into the wastewater along the aeration hole 6118.

[0068] S4. During the rotation of the round seat 6115, the protrusion 61193 moves synchronously along the annular groove 61195. When the air storage port 6116 is aligned with the aeration hole 6118, the protrusion 61193 reaches the V-shaped groove 61196 and drives the pressure plug 61192 to move downward along the groove body, so that the pressure plug 61192 squeezes the air along the extrusion cavity 61191 and bulges the elastic membrane 61198 along the air hole 61199, so that the elastic membrane 61198 expands in the air storage port 6116 and squeezes out the ozone along the aeration hole 6118.

[0069] The above shows and describes the basic principles, main features and advantages of the present invention. Technical personnel in this industry should understand that the present invention is not limited to the above embodiments. The above embodiments and descriptions are only preferred examples of the present invention and are not used to limit the present invention. Without departing from the spirit and scope of the present invention, the present invention may have various changes and improvements, which fall within the scope of the present invention to be protected. The scope of protection of the present invention is defined by the attached claims and their equivalents.

Claims

1. An ozone catalytic oxidation industrial wastewater deep treatment device, comprising two tracks (1) arranged parallel to each other, characterized in that: A crossbeam (2) is slidably connected to the track (1), and a plurality of aeration pipes (3) are arranged on the lower side of the crossbeam (2); an air pump (4) is fixedly arranged on the crossbeam (2), and a row pipe (5) connected to the air pump (4) is fixedly installed on the crossbeam (2); the row pipe (5) is connected to each aeration pipe (3) via a hose; The crossbeam (2) and the aeration pipe (3) are provided with a width controller (6); The width controller (6) comprises a ring frame (61) arranged at the lower side of the crossbeam (2), and the ring frame (61) is fixedly connected to the crossbeam (2) via a bracket (62) of a T-shaped structure, a motor (63) is fixedly mounted on the front side of the ring frame (61), and a gear (64) is fixedly connected to the rotating shaft of the motor (63), a sliding sleeve (65) is fixedly arranged on the front side of the ring frame (61), and a rack (66) meshing with the gear (64) is slidably connected in the sliding sleeve (65); The top edge of the ring frame (61) is provided with an annular groove (67), and two U-shaped slides (68) are slidably connected in the annular groove (67), the rack (66) is located between the two slides (68), and one end of the rack (66) away from the motor (63) is fixedly connected to a triangular plate (69) matched with the slide (68); An elastic plate (610) is fixedly mounted on the side surface of the ring frame (61), and the upper edge of the elastic plate (610) is located on the inner side of the slide frame (68); The aeration pipe (3) is fixedly arranged on a surface of the elastic plate (610) on a side facing away from the ring frame (61); A pressure difference prevention component (611) is arranged in the aeration pipe (3).

2. The ozone catalytic oxidation industrial wastewater deep treatment device according to claim 1 is characterized by: The pressure difference prevention component (611) comprises a ring track (6111) fixedly arranged inside the aeration pipe (3), and a pneumatic turbine (6112) is rotatably connected inside the ring track (6111), and a rotating shaft (6113) is fixedly connected to the bottom end of the wheel shaft of the pneumatic turbine (6112); A plurality of groups of ribs (6114) are fixedly connected to the inner wall of the aeration pipe (3), wherein a single group of ribs (6114) is provided with two, a round seat (6115) is provided between the single group of ribs (6114), and the round seat (6115) is fixedly connected to the rotating shaft (6113); The side surface of the round seat (6115) is provided with an air storage port (6116), and the upper and lower sides of the round seat (6115) are both provided with cutouts (6117) that are in communication with the air storage port (6116); An aeration hole (6118) matching with the air storage port (6116) is provided on the surface of the aeration pipe (3) on the side facing away from the air storage port (6116); A compressed air water blocking component (6119) is provided in the round seat (6115) and the aeration pipe (3).

3. The ozone catalytic oxidation industrial wastewater deep treatment device according to claim 2 is characterized by: The compressed air water blocking component (6119) comprises an extrusion chamber (61191) provided along the inside of the round seat (6115), and the extrusion chamber (61191) is connected to the air storage port (6116); a pressure plug (61192) is slidably connected to the inside of the extrusion chamber (61191), and a protrusion (61193) is fixedly connected to the side surface of the pressure plug (61192); a vertical groove (61194) communicating with the outside is provided on the side wall of the extrusion chamber (61191), and the protrusion (61193) passes through the vertical groove (61194); an annular groove (61195) matching the protrusion (61193) is provided on the inner wall of the aeration pipe (3), and a V-shaped groove (61196) is formed downwardly on the side of the annular groove (61195) away from the aeration hole (6118); A concave plate (61197) is fixedly installed at the junction of the extrusion cavity (61191) and the gas storage port (6116), and an elastic membrane (61198) is provided on the surface of the concave plate (61197) on the side opposite to the gas storage port (6116), and the elastic membrane (61198) is fixedly connected to the concave plate (61197) at its four sides; An air hole (61199) connecting the inner side of the elastic membrane (61198) and the extrusion cavity (61191) is provided on the lower side of the surface of the concave plate (61197).

4. The ozone catalytic oxidation industrial wastewater deep treatment device according to claim 1 is characterized by: A pipe seat corresponding to the aeration pipe (3) is fixedly arranged on the elastic plate (610), and the aeration pipe (3) is mounted on the pipe seat by means of bolts.

5. The ozone catalytic oxidation industrial wastewater deep treatment device according to claim 1 is characterized by: A roller matched with the triangular plate (69) is rotatably arranged on the slide (68).

6. The ozone catalytic oxidation industrial wastewater deep treatment device according to claim 2 is characterized by: The wheel shaft of the turbine is connected to the rotating shaft (6113) via a coupling.

7. The ozone catalytic oxidation industrial wastewater deep treatment device according to claim 3 is characterized by: A waterproof adhesive film is fixedly arranged between the pressing plug (61192) and the extrusion cavity (61191).

8. A method for using an ozone catalytic oxidation industrial wastewater deep treatment device, using an ozone catalytic oxidation industrial wastewater deep treatment device as claimed in any one of claims 1 to 7, characterized in that: The steps include: S1, the track (1) drives the crossbeam (2) to move, and causes the aeration pipe (3) to move synchronously in the industrial wastewater. During this process, the air pump (4) uses the aeration pipe (3) to inject ozone into the wastewater for catalytic oxidation treatment; S2, before the crossbeam (2) moves, the motor (63) is started, and the rack (66) and the triangular plate (69) are driven forward through the gear (64). During this process, the triangular plate (69) uses its own bevel edge to press the slide (68) forward along the annular groove (67), so that the slide (68) bends the elastic plate (610) to fit the ring frame (61), thereby controlling the linearly arranged elastic plates (610) to form an arc arrangement that adapts to different widths, so that the device can adapt to water tanks of different sizes; S3. During the process of the air pump (4) injecting ozone into the aeration pipe (3), the gas passes through the pneumatic turbine (6112) to drive it to rotate, and drives the round seat (6115) to rotate through the rotating shaft (6113). When the air storage port (6116) is displaced from the aeration hole (6118), the ozone in the aeration pipe (3) enters the air storage port (6116) along the cutout (6117). After the round seat (6115) rotates to align the air storage port (6116) with the aeration hole (6118), the retaining edge (6114) closes the cutout (6117), so that the air storage port (6116) is only connected to the aeration hole (6118), and the ozone is released into the wastewater along the aeration hole (6118); S4. During the rotation of the round seat (6115), the protrusion (61193) moves synchronously along the annular groove (61195). When the air storage port (6116) is aligned with the aeration hole (6118), the protrusion (61193) reaches the V-shaped groove (61196) and drives the pressure plug (61192) to move downward along the groove body, so that the pressure plug (61192) squeezes air along the extrusion cavity (61191) and bulges the elastic membrane (61198) along the air hole (61199), so that the elastic membrane (61198) expands in the air storage port (6116) and squeezes ozone out along the aeration hole (6118).

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