High-efficiency ozone advanced treatment device for high-salinity wastewater

Abstract

The invention discloses a high-efficiency ozone advanced treatment device for high-salinity wastewater, and relates to the technical field of wastewater treatment. The device comprises a reaction cylinder and a water tank, wherein the reaction cylinder comprises a mounting cylinder body arranged on the reaction cylinder; the reaction mechanism comprises two conical tooth rotary drums mounted on the drum cover, a plurality of one-way nozzles for spraying ozone are fixedly mounted on the surface of each conical tooth rotary drum, the reaction mechanism further comprises two semicircular catalytic plates mounted on the drum cover and used for storing a catalyst, and a plurality of staggered round holes are formed in the two sides of each semicircular catalytic plate; a cavity for conveying ozone is formed in the temporal part of the bevel gear rotating drum; ozone enters the semicircular catalytic plate through blocking of the semicircular catalytic plate and revolution stirring of the bevel gear rotary drum and fully reacts with wastewater through the action of a catalyst in the semicircular catalytic plate, and due to staggered arrangement of round holes in the two sides of the semicircular catalytic plate, the reaction time of the ozone and the wastewater in the semicircular catalytic plate is prolonged; therefore, the purpose of fully reacting and removing organic matters in the wastewater is achieved.

Description

Technical Field

[0001] The invention relates to the technical field of wastewater treatment, and in particular to a high-efficiency ozone deep treatment device for high-salinity wastewater. Background Art

[0002] At present, with the development of industry, a large amount of industrial wastewater will be generated in the production process. The most important thing at present is the treatment of high-salt wastewater. The water quality of high-salt wastewater is complex. It not only has a high salt content, but also contains a large amount of organic pollutants. Therefore, when treating high-salt wastewater, ozone needs to be introduced into the wastewater. The ozone and organic matter are catalyzed by the catalyst to produce an oxidation reaction for removal.

[0003] At present, when treating high-salt wastewater, the existing equipment directly introduces ozone into the wastewater and adds a catalyst for reaction. However, since the ozone rises too quickly in the wastewater, the contact time with the wastewater is very short. Therefore, a large amount of ozone needs to be introduced during the reaction, resulting in insufficient reaction and waste of ozone, which increases the cost of wastewater treatment.

[0004] Based on this, the present invention designs a high-efficiency ozone deep treatment device for high-salinity wastewater to solve the above problems. Summary of the invention

[0005] The purpose of the embodiments of the present invention is to provide a high-efficiency ozone deep treatment device for high-salt wastewater, aiming to solve the technical problems existing in the prior art mentioned in the background technology.

[0006] The embodiment of the present invention is implemented as follows: a highly efficient ozone deep treatment device for high-salinity wastewater, the device comprising: The reaction cylinder comprises a mounting cylinder body arranged on the reaction cylinder, a liquid inlet channel for introducing wastewater and a liquid outlet channel for discharging wastewater are fixedly installed on the surface of the mounting cylinder body, and a cylinder cover mounted on the mounting cylinder body for sealing the interior of the mounting cylinder body, and an air outlet channel for air outlet is installed on the surface of the cylinder cover; Reaction mechanism: comprising two conical gear drums mounted on the drum cover, each of which is fixedly mounted with a plurality of one-way nozzles for spraying ozone on its surface, and also comprising two semicircular catalytic plates mounted on the drum cover for storing catalysts, with a plurality of mutually staggered circular holes opened on both sides of the semicircular catalytic plates, and a cavity for ozone transport opened on the temporal part of the conical gear drum; Rotating mechanism: used to drive the bevel gear drum to revolve and rotate; Air intake mechanism: used to transmit ozone into the one-way nozzle; Fixing mechanism: by cooperating with the straightening mechanism, the postures of the two semicircular catalytic plates are changed to form a complete circular ring; Closing mechanism: used to drive the cylinder cover to move vertically.

[0007] Further, the rotation mechanism includes a T-shaped rotating shaft with one end rotatably connected to both bevel gear drums. The other end of the T-shaped rotating shaft is connected to the output end of a rotating motor. The output end of the rotating motor penetrates through the cylinder cover and is rotatably connected to the cylinder cover. An air inlet hole is provided at the connection between the rotating motor and the air inlet mechanism. A fixed conical cylinder is fixedly installed on the inner wall of the cylinder cover. The T-shaped rotating shaft is rotatably connected to the inner wall of the fixed conical cylinder. Moreover, the cone wheel provided on the fixed conical cylinder meshes with another cone wheel provided on the bevel gear drum. A cavity for ozone delivery is provided inside the T-shaped rotating shaft.

[0008] Furthermore, the air inlet mechanism includes an air inlet pipe installed on the cylinder cover. One end of the air inlet pipe is connected to an external ozone input device, and the other end is connected to a fixed air inlet ring. An annular groove is provided inside the fixed air inlet ring. Also, the fixed air inlet ring is rotatably connected to the T-shaped rotating shaft. The fixed air inlet ring is fixedly installed on the surface of the cylinder cover. The inside of the air inlet pipe is sequentially communicated with the annular groove of the fixed air inlet ring, the air inlet hole of the T-shaped rotating shaft, the internal cavity of the T-shaped rotating shaft, and the internal cavity of the bevel gear drum.

[0009] Furthermore, the fixing mechanism includes two fixing bolts for fixing the semi-circular catalytic plate. Each fixing bolt is in threaded connection with the arc-shaped frame plate. An extrusion rod is fixedly installed on the surface of the arc-shaped frame plate. The surface of the arc-shaped frame plate is connected to the alignment mechanism through two tension springs. Also, the arc-shaped frame plate is slidably connected to the alignment mechanism. A convex slider cooperating with the extrusion rod is fixedly installed on the inner wall of the installation cylinder body. Moreover, a spherical ball is provided at the cooperating end of the extrusion rod and the convex slider.

[0010] Furthermore, the alignment mechanism includes a linkage block slidably connected to the arc-shaped frame plate. The linkage block is fixedly installed on a rotating circular block. The surface of the rotating circular block is coaxially and fixedly connected to the output ends of two bevel gear sets. The input end of each bevel gear set is coaxially and fixedly connected to a linkage gear. The connecting shaft between the rotating circular block and the output end of the bevel gear set penetrates through the flipping mechanism and is rotatably connected to the flipping mechanism. The connecting shaft between the input end of the bevel gear set and the linkage gear penetrates through the flipping mechanism and is rotatably connected to the flipping mechanism. A alignment rack cooperating with the linkage gear is fixedly installed on the inner wall of the cylinder cover. A damper is provided on the rotating circular block.

[0011] Furthermore, the flipping mechanism includes a flipping main shaft rotatably connected to the cylinder cover. The connecting shaft between the rotating circular block and the output end of the bevel gear set penetrates through the flipping main shaft and is rotatably connected to the flipping main shaft. The connecting shaft between the input end of the bevel gear set and the linkage gear penetrates through the flipping main shaft and is rotatably connected to the flipping main shaft. A flipping gear is fixedly installed on the surface of the flipping main shaft. The flipping gear meshes with the outer ring of a bevel gear ring. The inner ring of the bevel gear ring meshes with a driving bevel gear. The bevel gear ring is rotatably connected to the surface of the cylinder cover. The driving bevel gear is connected to the output end of a flipping motor. The flipping motor is fixedly installed on the surface of the cylinder cover.

[0012] Further, the closing mechanism includes a closing motor fixedly installed on the installation cylinder body. A closing lead screw is fixedly installed at the output end of the closing motor. The closing lead screw forms a helical pair drive with the cylinder cover. A closing guide rod is fixedly installed on the surface of the cylinder cover, and the closing guide rod is slidably connected with a guide hole opened on the installation cylinder body.

[0013] Compared with the prior art, the beneficial effects of the present invention are as follows: 1. Through the blocking of the semi-circular catalytic plate and the revolution agitation of the bevel gear rotating cylinder, ozone enters the semi-circular catalytic plate, and through the action of the catalyst in the semi-circular catalytic plate, it reacts fully with the wastewater. Due to the staggered arrangement of the round holes on both sides of the semi-circular catalytic plate, the reaction time of ozone with the wastewater in the semi-circular catalytic plate is increased, so as to achieve the purpose of fully reacting and removing the organic matter in the wastewater.

[0014] 2. Through the action of the fixing mechanism, the wastewater near the inner wall of the installation cylinder body changes its flow direction. When rotating, under the guiding action of the fixing mechanism, the wastewater at the edge is guided to the position close to the central axis of the cylinder cover, so that ozone can be blocked by the semi-circular catalytic plate during the upward floating process, increasing the reaction time of ozone in the wastewater and achieving the purpose of improving the ozone reaction efficiency. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 It is a schematic structural diagram of a high-salt wastewater high-efficiency ozone deep treatment device provided by an embodiment of the present invention; Figure 2 It is a schematic cross-sectional structural diagram of the present invention; Figure 3 It is the present invention Figure 2 The enlarged structural diagram at A of; Figure 4 It is the present invention Figure 2 The enlarged structural diagram at B of; Figure 5 It is another schematic cross-sectional structural diagram of a high-salt wastewater high-efficiency ozone deep treatment device of the present invention; Figure 6 It is the present invention Figure 5 The enlarged structural diagram at C of; Figure 7 It is another attitude structural diagram of a high-salt wastewater high-efficiency ozone deep treatment device of the present invention; Figure 8 It is the present invention Figure 7 The enlarged structural diagram at D of; Figure 9 It is a partial parts explosion structural diagram of a high-salt wastewater high-efficiency ozone deep treatment device of the present invention.

[0016] In the attached drawings: 1. Reaction cylinder; 101. Installation cylinder body; 102. Liquid inlet channel; 103. Liquid outlet channel; 104. Cylinder cover; 105. Air outlet channel; 2. Reaction mechanism; 201. Bevel gear rotating cylinder; 202. Unidirectional nozzle; 203. Semi-circular catalytic plate; 3. Rotating mechanism; 301. T-shaped rotating shaft; 302. Rotating motor; 303. Fixed conical cylinder; 4. Air inlet mechanism; 401. Air inlet pipe; 402. Fixed air inlet ring; 5. Fixing mechanism; 501. Fixing bolt; 502. Arc-shaped support plate; 503. Extrusion rod; 504. Convex slider; 505. Tensile spring; 6. Alignment mechanism; 601. Linking block; 602. Rotating round block; 603. Bevel gear set; 604. Linking gear; 605. Alignment rack; 7. Flipping mechanism; 701. Flipping main shaft; 702. Flipping gear; 703. Bevel gear ring; 704. Driving bevel gear; 705. Flipping motor; 8. Sealing mechanism; 801. Sealing motor; 802. Sealing lead screw; 803. Sealing guide rod. Detailed implementation mode

[0017] In order to make the objectives, technical solutions and advantages of the present invention clearer and more understandable, the present invention will be further described in detail below with reference to the attached 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.

[0018] It can be understood that the terms "first", "second", etc. used in this application can be used in this article to describe various elements, but unless otherwise specified, these elements are not limited by these terms. These terms are only used to distinguish the first element from another element.

[0019] As Figure 6 , Figure 7 , Figure 8 and Figure 9 shown, in one embodiment, a high-salt wastewater high-efficiency ozone deep treatment device is proposed. The device includes: Reaction cylinder 1: It includes an installation cylinder body 101 provided on the reaction cylinder 1. The surface of the installation cylinder body 101 is fixedly installed with a liquid inlet channel 102 for introducing wastewater and a liquid outlet channel 103 for discharging wastewater. It also includes a cylinder cover 104 installed on the installation cylinder body 101 for closing the inside of the installation cylinder body 101. The surface of the cylinder cover 104 is installed with an air outlet channel 105 for discharging gas; Reaction mechanism 2: It includes two bevel gear rotating cylinders 201 installed on the cylinder cover 104. The surface of each bevel gear rotating cylinder 201 is fixedly installed with a plurality of unidirectional nozzles 202 for spraying ozone. It also includes two semi-circular catalytic plates 203 installed on the cylinder cover 104 for storing catalysts. A plurality of mutually offset circular holes are opened on both sides of the semi-circular catalytic plate 203. A cavity for ozone transmission is opened at the temporal part of the bevel gear rotating cylinder 201; Rotating mechanism 3: used to drive the conical gear drum 201 to revolve and rotate; Air intake mechanism 4: used to transmit ozone into the one-way nozzle 202; Fixing mechanism 5: by cooperating with the alignment mechanism 6, it changes the postures of the two semi-circular catalytic plates 203 to form a complete circular ring; Closing mechanism 8: used to drive the cylinder cover 104 to move vertically.

[0020] In the actual application of the embodiment of the present invention, when treating wastewater, as Figure 9 shown, at this time, the semi-circular catalytic plate 203 is fixed on the fixing mechanism 5, and at the same time, the wastewater is injected into the interior of the installation cylinder body 101 through the liquid inlet channel 102. After the fixing is completed, the wastewater injection is also completed. Under the action of the closing mechanism 8, the cylinder cover 104 is driven to move vertically downward, and the downward movement of the cylinder cover 104 closes the interior of the installation cylinder body 101, as Figure 8 and Figure 9 shown. At the same time, during the downward movement of the cylinder cover 104, under the action of the alignment mechanism 6, the semi-circular catalytic plate 203 rotates from the vertical state to the horizontal state, and at the same time, under the action of the fixing mechanism 5, the two semi-circular catalytic plates 203 move towards the central axis of the cylinder cover 104, and the two semi-circular catalytic plates 203 are spliced into a ring, so as to facilitate the later full blocking of ozone. At this time, after the preparation work is completed, as Figure 6 shown, the operation of the rotating mechanism 3 drives the conical gear drum 201 to revolve, and then drives the one-way nozzle 202 to revolve. At this time, ozone is transported to the conical gear drum 201 through the air intake mechanism 4. After the ozone is ejected from the one-way nozzle 202 and enters the wastewater, the generated bubbles move upward. At this time, the ozone moves upward to the position of the semi-circular catalytic plate 203. Through the blocking of the semi-circular catalytic plate 203 and the revolution agitation of the conical gear drum 201, the ozone enters the semi-circular catalytic plate 203. Through the action of the catalyst in the semi-circular catalytic plate 203, it reacts fully with the wastewater. Due to the staggered arrangement of the round holes on both sides of the semi-circular catalytic plate 203, the reaction time of ozone with the wastewater in the semi-circular catalytic plate 203 is increased, so as to achieve the purpose of fully reacting and removing the organic matter in the wastewater. The excess gas generated by the reaction is discharged through the air outlet channel 105. At the same time, during the revolution of the conical gear drum 201, under the action of the fixing mechanism 5, the wastewater near the inner wall of the installation cylinder body 101 changes the flow direction, and under the guiding action of the fixing mechanism 5 during rotation, the wastewater at the edge is guided to the position close to the central axis of the cylinder cover 104, so that the ozone can be blocked by the semi-circular catalytic plate 203 during the upward floating process, increasing the reaction time of ozone in the wastewater and achieving the purpose of improving the ozone reaction efficiency.

[0021] As Figure 2 、 Figure 3 and Figure 6As shown, as a preferred embodiment of the present invention, the rotating mechanism 3 includes a T-shaped rotating shaft 301 with one end rotatably connected to both bevel gear rotating cylinders 201. The other end of the T-shaped rotating shaft 301 is connected to the output end of a rotating motor 302. The output end of the rotating motor 302 penetrates through the cylinder cover 104 and is rotatably connected to the cylinder cover 104. An air inlet hole is provided at the connection between the rotating motor 302 and the air inlet mechanism 4. A fixed conical cylinder 303 is fixedly installed on the inner wall of the cylinder cover 104. The T-shaped rotating shaft 301 is rotatably connected to the inner wall of the fixed conical cylinder 303, and the conical wheel provided on the fixed conical cylinder 303 meshes with another conical wheel provided on the bevel gear rotating cylinder 201. A cavity for ozone delivery is provided inside the T-shaped rotating shaft 301.

[0022] In the actual application of the embodiment of the present invention, when the attitude adjustment of the semi-circular catalytic plate 203 is completed and the inside of the installation cylinder body 101 is closed, as Figure 3 and Figure 6 shown, at this time, the rotating motor 302 starts to operate. The operation of the rotating motor 302 drives the T-shaped rotating shaft 301 to rotate, thereby driving the bevel gear rotating cylinder 201 to revolve. The revolution of the bevel gear rotating cylinder 201 drives the one-way nozzle 202 to revolve synchronously. At the same time, due to the meshing effect of the conical wheel provided on the fixed conical cylinder 303 and the conical wheel provided on the bevel gear rotating cylinder 201, the bevel gear rotating cylinder 201 rotates while revolving. The rotation of the bevel gear rotating cylinder 201 drives the wastewater to circulate in the vertical direction, thereby stirring the wastewater while releasing ozone, enabling the ozone to fully contact and react with the organic matter in the waste liquid, and achieving the purpose of improving the reaction efficiency.

[0023] As Figure 3 shown, as a preferred embodiment of the present invention, the air inlet mechanism 4 includes an air inlet pipe 401 installed on the cylinder cover 104. One end of the air inlet pipe 401 is connected to an external ozone input device, and the other end of the air inlet pipe 401 is connected to a fixed air inlet ring 402. An annular groove is provided inside the fixed air inlet ring 402, and the fixed air inlet ring 402 is rotatably connected to the T-shaped rotating shaft 301. The fixed air inlet ring 402 is fixedly installed on the surface of the cylinder cover 104. The inside of the air inlet pipe 401 is sequentially communicated with the annular groove of the fixed air inlet ring 402, the air inlet hole of the T-shaped rotating shaft 301, the internal cavity of the T-shaped rotating shaft 301, and the internal cavity of the bevel gear rotating cylinder 201.

[0024] In the actual application of the embodiment of the present invention, when the bevel gear rotating cylinder 201 revolves, as Figure 3 shown, at this time, ozone is delivered to the inside of the bevel gear rotating cylinder 201 through the air inlet pipe 401, passing through the inside of the fixed air inlet ring 402 and the T-shaped rotating shaft 301, and then the ozone is sprayed out through the one-way nozzle 202 to react with the organic matter in the wastewater, thereby achieving the purpose of automatically spraying ozone.

[0025] AsFigure 5 , Figure 7 and Figure 8 As shown in and

[0026] , as a preferred embodiment of the present invention, the fixing mechanism 5 includes two fixing bolts 501 for fixing the semi-circular catalytic plate 203. Each fixing bolt 501 is threadedly connected to the arc-shaped frame plate 502. The surface of the arc-shaped frame plate 502 is fixedly installed with a pressing rod 503. The surface of the arc-shaped frame plate 502 is connected to the alignment mechanism 6 through two tension springs 505, and the arc-shaped frame plate 502 is slidably connected to the alignment mechanism 6. The inner wall of the installation cylinder body 101 is fixedly installed with a convex slider 504 that cooperates with the pressing rod 503, and a spherical ball is provided at the cooperating end of the pressing rod 503 and the convex slider 504.

[0026] When the waste water enters the interior of the installation cylinder body 101 from the liquid inlet channel 102 during the actual application of the embodiment of the present invention, at this time, the semi-circular catalytic plate 203 is fixedly installed on the arc-shaped frame plate 502 through the fixing bolt 501. When the cylinder cover 104 moves downward, the arc-shaped frame plate 502 is driven to rotate by 90 degrees through the action of the alignment mechanism 6. At this time, the semi-circular catalytic plate 203 changes from a vertical state to a horizontal state. As the cylinder cover 104 continues to move downward, as Figure 5 and Figure 8 shown, at this time, the pressing rod 503 is driven to contact the convex slider 504. Due to the arc-shaped setting of the convex slider 504, the pressing rod 503 is driven to move towards the central axis of the cylinder cover 104, and then the two semi-circular catalytic plates 203 are driven by the arc-shaped frame plate 502 to move towards the central axis of the cylinder cover 104. At this time, the two semi-circular catalytic plates 203 are combined into a complete ring, so that ozone will pass through the semi-circular catalytic plate 203 during the upward floating process. At the same time, due to the convex setting of the convex slider 504, during the stirring process of the waste water, the waste water is guided by the convex part of the convex slider 504, so that the waste water near the inner wall of the installation cylinder body 101 moves towards the central axis of the cylinder cover 104, ensuring that the upward floating ozone can all pass through the semi-circular catalytic plate 203, thereby achieving the purpose of fully reacting with the waste water.

[0027] As Figure 4 and Figure 9As shown, as a preferred embodiment of the present invention, the alignment mechanism 6 includes a linkage block 601 slidably connected to the arc-shaped frame plate 502. The linkage block 601 is fixedly installed on the rotating circular block 602. The surface of the rotating circular block 602 is coaxially and fixedly connected to the output ends of two bevel gear sets 603. The input end of each bevel gear set 603 is coaxially and fixedly connected to the linkage gear 604. The connecting shaft between the rotating circular block 602 and the output end of the bevel gear set 603 penetrates through the flipping mechanism 7 and is rotatably connected to the flipping mechanism 7. The connecting shaft between the input end of the bevel gear set 603 and the linkage gear 604 penetrates through the flipping mechanism 7 and is rotatably connected to the flipping mechanism 7. An alignment rack 605 cooperating with the linkage gear 604 is fixedly installed on the inner wall of the cylinder cover 104. A damper is provided on the rotating circular block 602.

[0028] In the actual application of the embodiment of the present invention, when the cylinder cover 104 drives the linkage gear 604 to move downward through the flipping mechanism 7, as Figure 4 and Figure 9 shown, at this time, through the cooperation of the linkage gear 604 and the alignment rack 605, the linkage gear 604 is driven to rotate, and then the rotating circular block 602 is driven to rotate by 90 degrees through the bevel gear set 603. The rotation of the rotating circular block 602 drives the semi-circular catalytic plate 203 to rotate by 90 degrees through the linkage block 601 and the fixing mechanism 5. The semi-circular catalytic plate 203 changes from the vertical state to the horizontal posture, so as to achieve the purpose of automatically adjusting the posture of the semi-circular catalytic plate 203 and at the same time reducing the movement resistance of the semi-circular catalytic plate 203 in the wastewater.

[0029] As Figure 1 , Figure 3 and Figure 8 shown, as a preferred embodiment of the present invention, the flipping mechanism 7 includes a flipping main shaft 701 rotatably connected to the cylinder cover 104. The connecting shaft between the rotating circular block 602 and the output end of the bevel gear set 603 penetrates through the flipping main shaft 701 and is rotatably connected to the flipping main shaft 701. The connecting shaft between the input end of the bevel gear set 603 and the linkage gear 604 penetrates through the flipping main shaft 701 and is rotatably connected to the flipping main shaft 701. A flipping gear 702 is fixedly installed on the surface of the flipping main shaft 701. The flipping gear 702 meshes with the outer ring of the bevel gear ring 703. The inner ring of the bevel gear ring 703 meshes with the driving bevel gear 704. The bevel gear ring 703 is rotatably connected to the surface of the cylinder cover 104. The driving bevel gear 704 is connected to the output end of the flipping motor 705. The flipping motor 705 is fixedly installed on the surface of the cylinder cover 104.

[0030] In the actual application of the embodiment of the present invention, when the installation of the semi-circular catalytic plate 203 is completed, as Figure 3 shown, at this time, the flipping motor 705 starts to operate. The operation of the flipping motor 705 drives the driving bevel gear 704 to rotate, as Figure 1As shown in the figure, the bevel gear ring 703 drives the flipping gear 702 to rotate 180 degrees, and the rotation of the flipping gear 702 drives the semi-circular catalytic plate 203 to rotate 180 degrees through the flipping main shaft 701. When the semi-circular catalytic plate 203 has not rotated 180 degrees, at this time, the fixing bolt 501 is located on the outer side of the semi-circular catalytic plate 203, which is convenient for rotating the fixing bolt 501 to fix the semi-circular catalytic plate 203. As Figure 8 shown in the figure, rotating 180 degrees is to make the fixing bolt 501 located on the upper surface of the semi-circular catalytic plate 203 when the semi-circular catalytic plate 203 is in a horizontal posture, avoiding ozone contacting the fixing bolt 501 and oxidizing the fixing bolt 501, thereby improving the service life of the fixing bolt 501 and at the same time improving the stability of the fixing bolt 501 for fixing the semi-circular catalytic plate 203.

[0031] As Figure 1 shown in the figure, as a preferred embodiment of the present invention, the closing mechanism 8 includes a closing motor 801 fixedly installed on the installation cylinder body 101. The output end of the closing motor 801 is fixedly installed with a closing lead screw 802. The closing lead screw 802 forms a helical pair transmission with the cylinder cover 104. The surface of the cylinder cover 104 is fixedly installed with a closing guide rod 803, and the closing guide rod 803 is slidably connected with a guide hole opened on the installation cylinder body 101.

[0032] In the actual application of the embodiment of the present invention, when the waste water is injected into the installation cylinder body 101 from the liquid inlet channel 102, at this time, the closing motor 801 starts to run, as Figure 1 shown in the figure, the operation of the closing motor 801 drives the cylinder cover 104 to move vertically downward through the helical pair transmission, so as to achieve the purpose of automatically closing the inside of the installation cylinder body 101.

[0033] The technical features of the above-described embodiments can be combined arbitrarily. For the sake of concise description, not all possible combinations of the technical features in the above-described embodiments are described. However, as long as there is no contradiction in the combination of these technical features, it should be considered as the scope described in this specification.

[0034] The above-described embodiments only represent several implementation manners of the present invention. The description is relatively specific and detailed, but it cannot be understood as a limitation to the scope of the patent of the present invention. It should be noted that for those of ordinary skill in the art, without departing from the concept of the present invention, several deformations and improvements can still be made, and these all belong to the protection scope of the present invention. Therefore, the protection scope of the patent of the present invention should be subject to the appended claims.

[0035] The above is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent replacements, and improvements made within the spirit and principle of the present invention should be included in the protection scope of the present invention.

Claims

1. An efficient ozone deep treatment device for high-salt wastewater, characterized in that, The device comprises: The reaction cylinder (1) comprises a mounting cylinder body (101) arranged on the reaction cylinder (1), a liquid inlet channel (102) for introducing wastewater and a liquid outlet channel (103) for discharging wastewater being fixedly mounted on the surface of the mounting cylinder body (101), and a cylinder cover (104) mounted on the mounting cylinder body (101) for sealing the interior of the mounting cylinder body (101), and an air outlet channel (105) for discharging air being mounted on the surface of the cylinder cover (104); The reaction mechanism (2) comprises two conical gear rotating cylinders (201) mounted on the cylinder cover (104), a plurality of one-way nozzles (202) for spraying ozone being fixedly mounted on the surface of each conical gear rotating cylinder (201), and two semicircular catalytic plates (203) mounted on the cylinder cover (104) for storing catalysts, a plurality of mutually staggered circular holes being provided on both sides of the semicircular catalytic plates (203), and a cavity for transporting ozone being provided on the temporal portion of the conical gear rotating cylinder (201); Rotating mechanism (3): used to drive the bevel gear rotating drum (201) to revolve and rotate; Air intake mechanism (4): used for transmitting ozone into the one-way nozzle (202); The fixing mechanism (5) is used to change the posture of the two semicircular catalyst plates (203) to form a complete circular ring by cooperating with the straightening mechanism (6); Closing mechanism (8): used to drive the cylinder cover (104) to move vertically.

2. The highly efficient ozone deep treatment device for high-salt wastewater according to claim 1, characterized in that The rotating mechanism (3) comprises a T-shaped rotating shaft (301) having one end rotatably connected to both of the two conical gear rotating cylinders (201); the other end of the T-shaped rotating shaft (301) is connected to the output end of a rotating motor (302); the output end of the rotating motor (302) passes through the cylinder cover (104) and is rotatably connected to the cylinder cover (104); an air intake hole is provided at the connection between the rotating motor (302) and the air intake mechanism (4); a fixed conical cylinder (303) is fixedly mounted on the inner wall of the cylinder cover (104); the T-shaped rotating shaft (301) is rotatably connected to the inner wall of the fixed conical cylinder (303); a conical wheel provided on the fixed conical cylinder (303) is meshed with another conical wheel provided on the conical gear rotating cylinder (201); and a cavity for ozone transport is provided inside the T-shaped rotating shaft (301).

3. The highly efficient ozone deep treatment device for high-salt wastewater according to claim 2, characterized in that, The air intake mechanism (4) comprises an air intake pipe (401) mounted on the cylinder cover (104); one end of the air intake pipe (401) is connected to an external ozone input device; the other end of the air intake pipe (401) is connected to a fixed air intake ring (402); an annular groove is provided inside the fixed air intake ring (402); the fixed air intake ring (402) is rotatably connected to a T-shaped rotating shaft (301); the fixed air intake ring (402) is fixedly mounted on the surface of the cylinder cover (104); the interior of the air intake pipe (401) is sequentially connected to the annular groove of the fixed air intake ring (402), the air intake hole of the T-shaped rotating shaft (301), the internal cavity of the T-shaped rotating shaft (301), and the internal cavity of the bevel gear rotating cylinder (201).

4. The high-salt wastewater high-efficiency ozone advanced treatment device according to claim 1, wherein, The fixing mechanism (5) includes two fixing bolts (501) for fixing the semi-circular catalytic plate (203). Each fixing bolt (501) is in threaded connection with the arc-shaped frame plate (502). An extrusion rod (503) is fixedly installed on the surface of the arc-shaped frame plate (502). The surface of the arc-shaped frame plate (502) is connected to the alignment mechanism (6) through two tension springs (505), and the arc-shaped frame plate (502) is slidably connected to the alignment mechanism (6). A convex slider (504) that cooperates with the extrusion rod (503) is fixedly installed on the inner wall of the installation cylinder body (101), and a spherical ball is arranged at the cooperation end of the extrusion rod (503) and the convex slider (504).

5. The high-salt wastewater high-efficiency ozone deep treatment device according to claim 4, characterized in that, The alignment mechanism (6) includes a linkage block (601) that is slidably connected to the arc-shaped frame plate (502). The linkage block (601) is fixedly installed on the rotating circular block (602). The surface of the rotating circular block (602) is coaxially and fixedly connected to the output ends of two bevel gear sets (603). The input end of each bevel gear set (603) is coaxially and fixedly connected to a linkage gear (604). The connecting shaft of the rotating circular block (602) and the output end of the bevel gear set (603) penetrates through the flipping mechanism (7) and is rotatably connected to the flipping mechanism (7). The connecting shaft of the input end of the bevel gear set (603) and the linkage gear (604) penetrates through the flipping mechanism (7) and is rotatably connected to the flipping mechanism (7). A alignment rack (605) that cooperates with the linkage gear (604) is fixedly installed on the inner wall of the cylinder cover (104). A damper is arranged on the rotating circular block (602).

6. The high-salt wastewater high-efficiency ozone deep treatment device according to claim 5, wherein, The flipping mechanism (7) includes a flipping main shaft (701) that is rotatably connected to the cylinder cover (104). The connecting shaft of the rotating circular block (602) and the output end of the bevel gear set (603) penetrates through the flipping main shaft (701) and is rotatably connected to the flipping main shaft (701). The connecting shaft of the input end of the bevel gear set (603) and the linkage gear (604) penetrates through the flipping main shaft (701) and is rotatably connected to the flipping main shaft (701). A flipping gear (702) is fixedly installed on the surface of the flipping main shaft (701). The flipping gear (702) meshes with the outer ring of the bevel gear ring (703). The inner ring of the bevel gear ring (703) meshes with the driving bevel gear (704). The bevel gear ring (703) is rotatably connected to the surface of the cylinder cover (104). The driving bevel gear (704) is connected to the output end of the flipping motor (705). The flipping motor (705) is fixedly installed on the surface of the cylinder cover (104).

7. An efficient ozone deep treatment device for high-salt wastewater according to claim 1, characterized in that, The closing mechanism (8) includes a closing motor (801) fixedly installed on the installation cylinder body (101). The output end of the closing motor (801) is fixedly installed with a closing lead screw (802). The closing lead screw (802) forms a screw pair drive with the cylinder cover (104). A closing guide rod (803) is fixedly installed on the surface of the cylinder cover (104). The closing guide rod (803) is slidably connected to the guide hole opened on the installation cylinder body (101).

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