Reaction device for chemical organic matter degradation

Abstract

The invention relates to the technical field of wastewater treatment, in particular to a reaction device for chemical organic matter degradation, the reaction device for chemical organic matter degradation comprises a shell mechanism, a driving mechanism, two stirring mechanisms, an auxiliary mechanism and a cleaning mechanism, the shell mechanism comprises two supporting columns, a heating shell and a reaction shell, the two supporting columns are installed on the ground at intervals, the heating shell is fixedly installed between the two supporting columns, the reaction shell is installed in the heating shell, the stirring mechanism is driven by the driving mechanism to stir mixed liquid in the reaction cavity, the contact and mixing effects between organic matter liquid and a degradation agent are improved, and therefore the mixing efficiency is improved; the cleaning mechanism can be used for cleaning the gas outlet of the gas guide auxiliary assembly, so that the blockage condition is prevented, the auxiliary gas can be ensured to smoothly enter the reaction cavity, and the normal reaction is ensured.

Description

Technical Field

[0001] The invention relates to the technical field of wastewater treatment, in particular to a reaction device for degrading chemical organic matter. Background Art

[0002] Industrial wastewater in cosmetic production contains a large amount of organic compounds, such as keto acids and benzoic acids commonly found in silicone oil and sunscreens. By using hydrogen peroxide as a degradation agent, chemical organic matter can be oxidized into simple compounds, thereby effectively degrading organic pollutants in cosmetic industrial wastewater. At the same time, adding oxygen as an auxiliary gas can help improve the reaction efficiency. Oxygen plays an auxiliary role by improving reaction conditions and improving reaction efficiency, further improving treatment efficiency. When treating cosmetic industrial wastewater, adding hydrogen peroxide and injecting oxygen can improve degradation efficiency. At present, the mixing structure in the organic matter degradation device cannot guide the mixed liquid near the side wall of the reaction chamber to the middle of the reaction chamber, resulting in a low mixing effect between the mixed liquid near the side wall of the reaction chamber and the mixed liquid near the middle of the reaction chamber, thereby making the mixing efficiency of the traditional organic matter degradation device low. In addition, the auxiliary gas is generally directly introduced into the interior of the reaction device from the top or bottom of the reaction device, and the contact area between the auxiliary gas and the solution inside the reaction device is limited. When the contact area between the auxiliary gas and the solution inside the reaction device is small, the reaction efficiency of organic matter degradation will be reduced. Summary of the invention

[0003] Based on this, it is necessary to provide a reaction device for chemical organic matter degradation to solve at least one technical problem raised in the above background technology.

[0004] To achieve the above object, the present invention provides the following technical solutions: A reaction device for chemical organic matter degradation comprises a shell mechanism, a driving mechanism, two stirring mechanisms, an auxiliary mechanism and a cleaning mechanism. The shell mechanism comprises two support columns, a heating shell and a reaction shell. The two support columns are installed on the ground at intervals. The heating shell is fixedly installed between the two support columns. The reaction shell is installed in the heating shell, and a heating cavity is formed between the reaction shell and the heating shell. A reaction cavity is formed inside the reaction shell. The driving mechanism is fixedly installed on the top of the reaction shell, and the bottom of the driving mechanism passes through the top of the reaction shell and extends into the reaction cavity. A mixing reaction cavity is provided in the driving mechanism. The stirring mechanism is fixedly installed on the opposite sides of the outer side wall of the driving mechanism. The auxiliary mechanism includes an air guide auxiliary component and a drainage auxiliary component. The air guide auxiliary component is installed at the bottom of the reaction shell and is partially located at the bottom of the reaction chamber. The drainage auxiliary component is installed at the bottom of the reaction chamber, and the top of the drainage auxiliary component extends through the bottom of the driving mechanism into the mixed reaction chamber. The air guide auxiliary component is used to introduce auxiliary gas into the bottom of the reaction chamber, and the drainage auxiliary component is used to guide part of the auxiliary gas to the middle of the reaction chamber. The cleaning mechanism is fixedly installed at the bottom of the drainage auxiliary component, and the cleaning mechanism is interactively arranged at the bottom of the reaction chamber.

[0005] As a further improvement of the present invention, the shell mechanism includes a feed pipe and a discharge pipe, the feed pipe is fixedly installed on the top of the reaction shell, and the feed pipe is connected to the top of the reaction chamber, the discharge pipe is fixedly installed on the bottom of the reaction shell, and the discharge pipe is connected to the bottom of the reaction chamber, a discharge blocking block is installed at the bottom of the discharge pipe, an oil inlet is opened at the top of the rear side of the heating shell, and the oil inlet is connected to the heating chamber, and an oil outlet is opened at the bottom of the front side of the heating shell, and the oil outlet is connected to the heating chamber.

[0006] As a further improvement of the present invention, the driving mechanism includes a driving motor, a driving shaft and a rotating reaction column, the driving motor is fixedly installed on the top of the reaction shell, the driving shaft is rotatably installed on the top of the reaction chamber, and the top of the driving shaft passes through the top of the reaction shell and is fixedly connected to the output shaft of the driving motor, the rotating reaction column is fixedly installed on the bottom of the driving shaft, the mixing reaction chamber is opened in the rotating reaction column, and two mixing grooves are opened on the front and rear sides of the side wall of the rotating reaction column, and the two mixing grooves on the same side are arranged with an upper and lower interval, and the mixing groove is connected to the mixing reaction chamber.

[0007] As a further improvement of the present invention, two stirring mechanisms are arranged in a circular array around the central axis of the rotating reaction column, and the stirring mechanism includes two mixing guide assemblies and side wall scrapers. The two mixing guide assemblies are fixedly installed on the outer side wall of the rotating reaction column, and the two mixing guide assemblies are spaced apart up and down. The mixing guide assemblies are used to stir the organic matter in the reaction chamber and guide part of the organic matter near the side wall of the reaction chamber into the mixing reaction chamber. The side wall scraper is fixedly installed on one end of the two mixing guide assemblies away from the rotating reaction column, and the side wall scraper is slidably arranged on the side wall of the reaction chamber.

[0008] As a further improvement of the present invention, the mixing guide assembly includes a guide wedge block, a dispersion filter and a stirring rod. The guide wedge block is fixedly installed on the outer side wall of the rotating reaction column. A fitting arc surface is formed on the end of the guide wedge block away from the rotating reaction column. The fitting arc surface is used to guide the wedge block to slide on the side wall of the reaction chamber. A stirring surface is formed on one side wall of the guide wedge block. A guide groove is provided on the end of the stirring surface away from the rotating reaction column, and the other end of the guide groove is connected to the mixing reaction chamber. A guide inclined surface is formed on the side wall of the guide groove away from the rotating reaction column. The dispersion filter is fixedly installed on the end of the guide groove close to the stirring surface, and the stirring rod is fixedly installed on the bottom of the guide wedge block.

[0009] As a further improvement of the present invention, the air guide auxiliary component includes a ventilation duct, an inlet circular pipe and an air guide valve. The ventilation duct is fixedly installed on the side wall of the discharge pipe, one end of the ventilation duct is located on the outside of the discharge pipe, and the other end extends from the inside of the discharge pipe through the bottom of the reaction shell to the bottom of the reaction chamber. The inlet circular pipe is fixedly installed on the top of the ventilation duct, and the interior of the inlet circular pipe is connected with the interior of the ventilation duct. A plurality of ventilation micropores are opened on the top of the inlet circular pipe, and the air guide valve is fixedly installed on one end of the ventilation duct located on the outside of the discharge pipe.

[0010] As a further improvement of the present invention, the drainage auxiliary component includes two support rods, a connecting circular plate, a gas guide rod and four guide plates, the two support rods are fixedly installed at intervals at the bottom of the reaction chamber, the connecting circular plate is fixedly installed at the top of the two support rods, the gas guide rod is rotatably installed at the top of the connecting circular plate, and the top of the gas guide rod passes through the bottom of the rotating reaction column and extends to the upper part of the mixed reaction chamber, the gas guide rod rotates with the rotating reaction column, the two guide plates are fixedly installed on the front side wall of the gas guide rod, and the other two guide plates are fixedly installed on the rear side wall of the gas guide rod, and the two guide plates on the same side are arranged at intervals up and down, and the two guide plates at the same height are symmetrically arranged, the top of the connecting circular plate is provided with a connecting groove extending to the bottom, the bottom of the connecting circular plate is fixedly provided with a connecting duct, and the bottom of the connecting duct is connected to the inside of the ventilation duct, the top of the connecting duct is connected to the bottom of the connecting groove, the bottom of the gas guide rod is provided with a gas guide cavity, and the bottom of the gas guide cavity is connected to the top of the connecting groove, and the front and rear side walls of the gas guide rod are provided with a plurality of gas guide micropores, and the gas guide micropores are connected to the gas guide cavity.

[0011] As a further improvement of the present invention, the cleaning mechanism includes a connecting cross bar, a cleaning connecting rod and a cleaning block. The connecting cross bar is fixedly installed at the bottom of the air guide rod, the cleaning connecting rod is fixedly installed at the middle of the connecting cross bar, and the cleaning block is fixedly installed at the bottom of the cleaning connecting rod. A cleaning arc groove is provided at the bottom of the cleaning block, and the cleaning arc groove is fitted with the top of the circular tube. The cleaning block can slide on the top of the circular tube through the cleaning arc groove. A magnetic block groove is provided at the top of the cleaning arc groove, and a dredging spring is fixedly installed at the top of the magnetic block groove. A magnetic suction slider is fixedly installed at the bottom of the dredging spring. A plurality of conical protrusions are protruding from the bottom of the magnetic suction slider, and the ends of the plurality of conical protrusions can enter the ventilation micropores.

[0012] As a further improvement of the present invention, a scraping assembly is also provided at the bottom of the outer side wall of the rotating reaction column, and the scraping assembly includes a scraping cross bar, a scraping vertical bar, a scraping wedge block and an arc-shaped scraper. The scraping cross bar is fixedly installed at the bottom of the outer side wall of the rotating reaction column, the scraping vertical bar is fixedly installed at the end of the scraping cross bar away from the rotating reaction column, the scraping wedge block is fixedly installed at the bottom of the scraping vertical bar, and the bottom of the scraping wedge block is slidably arranged at the bottom of the reaction chamber, a drainage slope is formed on one side wall of the scraping wedge block, and the distance between the drainage slope and the side wall of the scraping wedge block away from the drainage slope gradually decreases toward the direction of the connecting circular plate, and the arc-shaped scraper is fixedly installed at the bottom of the drainage slope, and the bottom of the arc-shaped scraper is slidably arranged at the bottom of the reaction chamber.

[0013] As a further improvement of the present invention, a one-way guide block is fixedly installed in the guide groove, and a Tesla groove is opened in the one-way guide block. The Tesla groove has the same principle as the Tesla valve and is used to guide the liquid in the groove away from one end of the rotating reaction column to accelerate the flow toward the end close to the rotating reaction column. A dredging ring block is slidably installed in the circular tube, and a passive magnetic block is embedded on the top of the dredging ring block. The polarity of the passive magnetic block is opposite to that of the magnetic suction slider. When the magnetic suction slider moves, the passive magnetic block can drive the dredging ring block to move in the circular tube.

[0014] Compared with the prior art, the present invention has the following beneficial effects: 1. The reaction chamber is heated by the high-temperature oil in the heating chamber, so that the temperature of the reaction chamber gradually rises to the preset temperature, thereby accelerating the degradation reaction and improving the reaction efficiency. The reaction rate between the organic liquid and the degradation agent is accelerated by the heating chamber and the auxiliary mechanism, so that the organic liquid can be degraded faster, thereby increasing the degradation speed. The driving mechanism drives the stirring mechanism to stir the mixed liquid in the reaction chamber, increasing the contact and mixing effect between the organic liquid and the degradation agent, thereby improving the mixing efficiency and further accelerating the reaction. The cleaning mechanism can clean the gas outlet of the gas guide auxiliary component to prevent blockage, ensure that the auxiliary gas can smoothly enter the reaction chamber, and ensure the normal progress of the reaction.

[0015] 2. Through the synergistic effect of the rotating driving shaft, the rotating reaction column, the guiding wedge block, the side wall scraper rod and the stirring rod, the organic liquid and the degradation agent can be mixed more evenly, thereby improving the mixing quality of the mixed liquid. The fitting arc surface of the guiding wedge block can scrape off the sediment attached to the side wall of the reaction chamber to prevent the sediment from being fully mixed and affecting the reaction. During the stirring process, the mixed liquid can drive part of the sediment to disperse it into extremely small particles through the dispersion filter, thereby improving the efficiency of the reaction. Through the combined effect of the guiding through groove, the Tesla groove and the guide plate, the mixed liquid can impact the guide plate at a faster speed. When the guide plate rotates, it can mix and stir the mixed liquid in the mixed reaction chamber, increase the contact area between the cosmetic industrial wastewater and hydrogen peroxide in the mixed liquid in the mixed reaction chamber, thereby achieving a rapid mixing reaction. The mixed liquid can also flow to the center of the reaction chamber again for re-mixing, that is, the mixed liquid near the side wall of the reaction chamber can be mixed with the mixed liquid near the center of the reaction chamber, avoiding the situation where the concentration of the mixed liquid near the side wall of the reaction chamber and the center is greatly different, thereby achieving improved mixing effect.

[0016] 3. The precipitate attached to the side wall of the reaction chamber can be dispersed into small particles by the dispersion filter, thereby increasing the surface area of ​​contact between them and the mixed liquid, which is beneficial to the degradation reaction. The guide groove can guide some small particles into the mixed reaction chamber, so that they are more fully mixed with the mixed liquid, increasing the contact opportunity of the reaction. The Tesla groove can accelerate the flow of the mixed liquid through the action of pressure, so that it flows quickly into the mixed reaction chamber, and the rotation speed of the guide plate is increased. Opening the air guide valve can allow the auxiliary gas to smoothly enter the ventilation pipe, and enter the air guide cavity through the connecting conduit and the connecting groove, and finally enter the mixed reaction chamber. The auxiliary gas in the mixed reaction chamber can improve the reaction efficiency of the mixed liquid in the mixed reaction chamber in advance, so that the mixed liquid in the mixed reaction chamber is fully reacted, and then the fully reacted mixed liquid flows into the reaction chamber through the mixing groove, so that the unreacted liquid in the fully reacted mixed liquid is mixed and reacted with the mixed liquid in the reaction chamber. By simultaneously introducing the auxiliary gas into the mixed reaction chamber and the reaction chamber, synchronous auxiliary degradation is achieved, further improving the degradation efficiency and the reaction efficiency of the mixed liquid.

[0017] 4. It can clean the top of the circular tube and the dirt hidden inside the circular tube, so as to increase the amount of auxiliary gas introduced, improve efficiency and performance. The cleaning block can clean the sediment or small particles on the top of the circular tube by cleaning the arc groove to avoid affecting the amount of auxiliary gas introduced. The magnetic slider can drive several conical burrs to clean the sediment inside the ventilation micropores to avoid affecting the introduction of auxiliary gas, which can effectively improve the cleanliness.

[0018] 5. The scraping horizontal bar drives the scraping vertical bar to rotate, which in turn drives the scraping wedge block to rotate, and finally causes the arc-shaped scraper to rotate, which can effectively scrape the sediment at the bottom of the reaction chamber to prevent the sediment from accumulating at the bottom, thereby keeping the reaction chamber clean. Through the guidance of the drainage slope on the scraping wedge block, the mixed liquid and sediment at the bottom can flow along the direction of the drainage slope, so that they flow in the direction of the circular tube, ensuring that the sediment in the mixed liquid at the bottom is fully in contact with the degradation agent, thereby improving the reaction efficiency. The auxiliary gas introduced into the ventilation micropores can fully degrade the mixed liquid at the bottom. By controlling the amount of auxiliary gas introduced and the contact time with the mixed liquid, the efficiency and speed of the reaction are increased, thereby improving the effect of the reaction. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 It is a structural schematic diagram of an embodiment of the present invention; Figure 2 Another structural schematic diagram of an embodiment of the present invention; Figure 3 It is a schematic cross-sectional structure diagram of an embodiment of the present invention; Figure 4 is another cross-sectional structural schematic diagram of an embodiment of the present invention; Figure 5 It is another cross-sectional structural schematic diagram of an embodiment of the present invention; Figure 6 It is a schematic cross-sectional structure diagram of a partial mixing guide assembly according to an embodiment of the present invention; Figure 7 It is a structural schematic diagram of a scraping assembly according to an embodiment of the present invention; Figure 8 for Figure 4 A partial enlarged view of the middle A; In the figure: 10, shell mechanism; 20, driving mechanism; 30, stirring mechanism; 40, auxiliary mechanism; 50, cleaning mechanism; 11, support column; 12, heating shell; 13, reaction shell; 121, heating chamber; 131, reaction chamber; 60, air guide auxiliary component; 70, drainage auxiliary component; 231, mixing reaction chamber; 14, feed pipe; 15, discharge pipe; 151, discharge blocking block; 123, oil inlet; 122, oil outlet; 21, drive motor; 22, drive shaft; 23, rotating reaction column; 232, mixing groove; 31, mixing guide component; 32, side wall scraper; 311, guide wedge block; 312, dispersion filter; 313, stirring rod; 314, fitting arc surface; 315, stirring surface; 316, guide groove ; 317, guide slope; 61, ventilation duct; 62, access round tube; 63, air guide valve; 621, ventilation micropore; 71, support rod; 72, connecting circular plate; 73, air guide rod; 74, guide plate; 721, connecting groove; 722, connecting duct; 731, air guide cavity; 732, air guide micropore; 51, connecting cross bar; 52, cleaning connecting rod; 53, cleaning block; 531, cleaning arc groove; 532, magnetic block groove; 533, dredging spring; 534, magnetic suction slider; 535, conical burr; 80, scraping assembly; 81, scraping cross bar; 82, scraping vertical bar; 83, scraping wedge block; 84, arc scraper; 831, drainage slope; 318, one-way guide block; 319, Tesla groove; 622, dredging ring block; 623, passive magnetic block. DETAILED DESCRIPTION

[0020] In order to facilitate the understanding of the present invention, the present invention will be described more fully below with reference to the relevant drawings. The preferred embodiments of the present invention are given in the drawings. However, the present invention can be implemented in many different forms and is not limited to the embodiments described herein. On the contrary, the purpose of providing these embodiments is to make the disclosure of the present invention more thoroughly understood.

[0021] It should be noted that when an element is referred to as being "fixed to" another element, it may be directly on the other element or there may be a central element. When an element is considered to be "connected to" another element, it may be directly connected to the other element or there may be a central element at the same time. The terms "vertical", "horizontal", "left", "right" and similar expressions used herein are for illustrative purposes only and do not represent the only implementation method.

[0022] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as those commonly understood by those skilled in the art to which the present invention belongs. The terms used herein are only for the purpose of describing specific embodiments and are not intended to limit the present invention. The term "and / or" used herein includes any and all combinations of one or more of the related listed items.

[0023] See also Figures 1 to 8 A chemical organic matter degradation reaction device comprises a shell mechanism 10, a driving mechanism 20, two stirring mechanisms 30, an auxiliary mechanism 40 and a cleaning mechanism 50. The shell mechanism 10 comprises two support columns 11, a heating shell 12 and a reaction shell 13. The two support columns 11 are installed on the ground at intervals. The heating shell 12 is fixedly installed between the two support columns 11. The reaction shell 13 is installed in the heating shell 12, and a heating cavity 121 is formed between the reaction shell 13 and the heating shell 12. A reaction cavity 131 is formed inside the reaction shell 13. The driving mechanism 20 is fixedly installed on the top of the reaction shell 13, and the bottom of the driving mechanism 20 passes through the top of the reaction shell 13 and extends into the reaction cavity 131. A mixing reaction cavity 2 is provided in the driving mechanism 20. 31, two stirring mechanisms 30 are fixedly installed on opposite sides of the outer wall of the driving mechanism 20, the auxiliary mechanism 40 includes a gas guide auxiliary component 60 and a drainage auxiliary component 70, the gas guide auxiliary component 60 is installed at the bottom of the reaction shell 13, and is partially located at the bottom of the reaction chamber 131, the drainage auxiliary component 70 is installed at the bottom of the reaction chamber 131, and the top of the drainage auxiliary component 70 passes through the bottom of the driving mechanism 20 and extends into the mixing reaction chamber 231, the gas guide auxiliary component 60 is used to introduce auxiliary gas into the bottom of the reaction chamber 131, and the drainage auxiliary component 70 is used to guide part of the auxiliary gas to the middle of the reaction chamber 131, and the cleaning mechanism 50 is fixedly installed at the bottom of the drainage auxiliary component 70, and the cleaning mechanism 50 is interactively arranged at the bottom of the reaction chamber 131.

[0024] The shell mechanism 10 includes a feed pipe 14 and a discharge pipe 15. The feed pipe 14 is fixedly installed on the top of the reaction shell 13, and the feed pipe 14 is communicated with the top of the reaction chamber 131. The discharge pipe 15 is fixedly installed on the bottom of the reaction shell 13, and the discharge pipe 15 is communicated with the bottom of the reaction chamber 131. A discharge blocking block 151 is installed at the bottom of the discharge pipe 15. An oil inlet 123 is opened at the top of the rear side of the heating shell 12, and the oil inlet 123 is communicated with the heating chamber 121. An oil outlet 122 is opened at the bottom of the front side of the heating shell 12, and the oil outlet 122 is communicated with the heating chamber 121.

[0025] The driving mechanism 20 includes a driving motor 21, a driving shaft 22 and a rotating reaction column 23. The driving motor 21 is fixedly installed on the top of the reaction shell 13. The driving shaft 22 is rotatably installed on the top of the reaction chamber 131. The top of the driving shaft 22 passes through the top of the reaction shell 13 and is fixedly connected to the output shaft of the driving motor 21. The rotating reaction column 23 is fixedly installed on the bottom of the driving shaft 22. The mixing reaction chamber 231 is opened in the rotating reaction column 23. Two mixing grooves 232 are opened on the front and rear sides of the side wall of the rotating reaction column 23. The two mixing grooves 232 on the same side are arranged at an interval up and down, and the mixing grooves 232 are connected to the mixing reaction chamber 231.

[0026] The two stirring mechanisms 30 are arranged in a circular array around the central axis of the rotating reaction column 23. The stirring mechanism 30 includes two mixing guide components 31 and a side wall scraper 32. The two mixing guide components 31 are fixedly installed on the outer side wall of the rotating reaction column 23, and the two mixing guide components 31 are arranged at intervals up and down. The mixing guide components 31 are used to stir the organic matter in the reaction chamber 131 and guide part of the organic matter near the side wall of the reaction chamber 131 into the mixing reaction chamber 231. The side wall scraper 32 is fixedly installed on one end of the two mixing guide components 31 away from the rotating reaction column 23, and the side wall scraper 32 is slidably set on the side wall of the reaction chamber 131.

[0027] The mixing guide assembly 31 includes a guide wedge block 311, a dispersion filter 312 and a stirring rod 313. The guide wedge block 311 is fixedly installed on the outer side wall of the rotating reaction column 23. The end of the guide wedge block 311 away from the rotating reaction column 23 is formed with a fitting arc surface 314, and the fitting arc surface 314 is used to guide the wedge block 311 to slide on the side wall of the reaction chamber 131. A stirring surface 315 is formed on one side wall of the guide wedge block 311. A guide groove 316 is formed on the end of the stirring surface 315 away from the rotating reaction column 23, and the other end of the guide groove 316 is connected to the mixing reaction chamber 231. A guide inclined surface 317 is formed on the side wall of the guide groove 316 away from the rotating reaction column 23. The dispersion filter 312 is fixedly installed on the end of the guide groove 316 close to the stirring surface 315, and the stirring rod 313 is fixedly installed at the bottom of the guide wedge block 311.

[0028] The air guide auxiliary component 60 includes a ventilation pipe 61, an inlet pipe 62 and an air guide valve 63. The ventilation pipe 61 is fixedly installed on the side wall of the discharge pipe 15. One end of the ventilation pipe 61 is located on the outside of the discharge pipe 15, and the other end extends from the inside of the discharge pipe 15 through the bottom of the reaction shell 13 to the bottom of the reaction chamber 131. The inlet pipe 62 is fixedly installed on the top of the ventilation pipe 61, and the interior of the inlet pipe 62 is connected to the interior of the ventilation pipe 61. A plurality of ventilation micropores 621 are opened on the top of the inlet pipe 62. The air guide valve 63 is fixedly installed on one end of the ventilation pipe 61 located on the outside of the discharge pipe 15.

[0029] The drainage auxiliary component 70 includes two support rods 71, a connecting circular plate 72, an air guide rod 73 and four guide plates 74. The two support rods 71 ​​are fixedly installed at the bottom of the reaction chamber 131 at intervals, the connecting circular plate 72 is fixedly installed on the top of the two support rods 71, the air guide rod 73 is rotatably installed on the top of the connecting circular plate 72, and the top of the air guide rod 73 passes through the bottom of the rotating reaction column 23 and extends to the upper part of the mixed reaction chamber 231. The air guide rod 73 is rotatably matched with the rotating reaction column 23. Two guide plates 74 are fixedly installed on the front side wall of the air guide rod 73, and the other two guide plates 74 are fixedly installed on the rear side wall of the air guide rod 73, and the same The two side guide plates 74 are arranged at intervals up and down, and the two guide plates 74 at the same height are symmetrically arranged. A connecting groove 721 extending to the bottom is opened at the top of the connecting circular plate 72, and a connecting duct 722 is fixedly installed at the bottom of the connecting circular plate 72, and the bottom of the connecting duct 722 is connected to the interior of the ventilation duct 61, and the top of the connecting duct 722 is connected to the bottom of the connecting groove 721, and an air guide cavity 731 is opened at the bottom of the air guide rod 73, and the bottom of the air guide cavity 731 is connected to the top of the connecting groove 721, and a plurality of air guide micropores 732 are opened on the front and rear side walls of the air guide rod 73, and the air guide micropores 732 are connected to the air guide cavity 731.

[0030] The cleaning mechanism 50 includes a connecting cross bar 51, a cleaning connecting rod 52 and a cleaning block 53. The connecting cross bar 51 is fixedly installed at the bottom of the air guide rod 73, the cleaning connecting rod 52 is fixedly installed at the middle of the connecting cross bar 51, and the cleaning block 53 is fixedly installed at the bottom of the cleaning connecting rod 52. A cleaning arc groove 531 is provided at the bottom of the cleaning block 53, and the cleaning arc groove 531 is fitted with the top of the access circular tube 62. The cleaning block 53 can slide on the top of the access circular tube 62 through the cleaning arc groove 531. A magnetic block groove 532 is provided at the top of the cleaning arc groove 531. A dredging spring 533 is fixedly installed at the top of the magnetic block groove 532, and a magnetic suction slider 534 is fixedly installed at the bottom of the dredging spring 533. A plurality of conical burrs 535 are convexly provided at the bottom of the magnetic suction slider 534, and the ends of the plurality of conical burrs 535 can enter the ventilation micropores 621.

[0031] A scraping assembly 80 is also provided at the bottom of the outer side wall of the rotating reaction column 23, and the scraping assembly 80 includes a scraping cross bar 81, a scraping vertical bar 82, a scraping wedge block 83 and an arc-shaped scraper 84. The scraping cross bar 81 is fixedly installed at the bottom of the outer side wall of the rotating reaction column 23, the scraping vertical bar 82 is fixedly installed at the end of the scraping cross bar 81 away from the rotating reaction column 23, the scraping wedge block 83 is fixedly installed at the bottom of the scraping vertical bar 82, and the bottom of the scraping wedge block 83 is slidably arranged at the bottom of the reaction chamber 131, and a drainage slope 831 is formed on one side wall of the scraping wedge block 83, and the distance between the drainage slope 831 and the side wall of the scraping wedge block 83 away from the drainage slope 831 gradually decreases toward the direction of the connecting circular plate 72, and the arc-shaped scraper 84 is fixedly installed at the bottom of the drainage slope 831, and the bottom of the arc-shaped scraper 84 is slidably arranged at the bottom of the reaction chamber 131.

[0032] A one-way guide block 318 is fixedly installed in the guide groove 316, and a Tesla groove 319 is opened in the one-way guide block 318. The Tesla groove 319 has the same principle as the Tesla valve and is used to guide the liquid in the groove 316 away from one end of the rotating reaction column 23 to accelerate the flow toward the end close to the rotating reaction column 23. A dredging ring block 622 is slidably installed in the through-tube 62, and a passive magnetic block 623 is embedded on the top of the dredging ring block 622. The polarity of the passive magnetic block 623 is opposite to that of the magnetic slider 534. When the magnetic slider 534 moves, the passive magnetic block 623 can drive the dredging ring block 622 to move in the through-tube 62.

[0033] In one embodiment, the operator first adds high-temperature oil into the heating chamber 121 through the oil inlet 123, and heats the reaction chamber 131 through the high-temperature oil in the heating chamber 121. Then, the operator introduces the mixed liquid formed by mixing the organic liquid to be degraded and the degradation agent into the reaction chamber 131 from the feed pipe 14 for degradation reaction, wherein the organic liquid is industrial wastewater in industrial production, such as cosmetic industrial wastewater (common keto acids and benzoic acids in silicone oil and sunscreen), and the degradation agent is a chemical that can produce redox reaction on the industrial wastewater, such as hydrogen peroxide, cosmetic industrial wastewater, etc. Wastewater needs to be treated before it can be discharged normally to avoid the pollutants in the untreated cosmetic industrial wastewater from affecting nature. The high-temperature oil in the heating chamber 121 can gradually increase the temperature in the reaction chamber 131 to a preset temperature, thereby accelerating the degradation speed in the reaction chamber 131 and improving the reaction efficiency. The driving mechanism 20 is started, and the driving mechanism 20 can drive the stirring mechanism 30 to stir the mixed liquid in the reaction chamber 131, thereby improving the mixing efficiency of the organic liquid and the degradation agent, thereby accelerating the reaction efficiency and improving the degradation speed. The auxiliary mechanism 40 can add auxiliary gas into the reaction chamber 131. The auxiliary gas is used to increase the reaction speed between the organic liquid and the degradation agent. For example, oxygen is introduced as the auxiliary gas for the cosmetic industrial wastewater and hydrogen peroxide, so that the organic liquid can be degraded faster. The cleaning mechanism 50 can clean the gas outlet of the gas guide auxiliary component 60 to prevent the gas outlet of the gas guide auxiliary component 60 from being blocked and affecting the auxiliary gas from entering the reaction chamber 131. In this case, the reaction chamber 131 is heated by the high-temperature oil in the heating chamber 121, so that the temperature of the reaction chamber 131 gradually rises to the preset temperature, thereby accelerating the degradation reaction and improving the reaction efficiency. By heating the chamber 121 and the auxiliary mechanism 40, the reaction rate between the organic liquid and the degradation agent is accelerated, so that the organic liquid can be degraded faster, thereby increasing the degradation speed. The driving mechanism 20 drives the stirring mechanism 30 to stir the mixed liquid in the reaction chamber 131, increasing the contact and mixing effect between the organic liquid and the degradation agent, thereby improving the mixing efficiency and further accelerating the reaction. The cleaning mechanism 50 can clean the gas outlet of the gas guide auxiliary component 60 to prevent blockage, ensure that the auxiliary gas can smoothly enter the reaction chamber 131, and ensure the normal progress of the reaction.

[0034] In one embodiment, after the operator introduces the mixed liquid formed by mixing the organic liquid to be degraded and the degradation agent into the reaction chamber 131 from the feed pipe 14, the driving motor 21 is started to drive the driving shaft 22 to rotate, and the driving shaft 22 can drive the rotating reaction column 23 to rotate, and the rotating reaction column 23 can drive four guide wedge blocks 311 to rotate around the rotating reaction column 23, and the guide wedge blocks 311 can drive the side wall scraping rods 32 and the stirring rods 313 to rotate. The rotation of the guide wedge blocks 311, the side wall scraping rods 32 and the stirring rods 313 can stir and mix the mixed liquid in the reaction chamber 131, thereby improving the mixing quality of the mixed liquid, so that the organic liquid and the degradation agent can be mixed more evenly, so that the degradation reaction can be better carried out, and the surrounding Figure 5In the embodiment, the rotation direction of the guiding wedge block 311 is counterclockwise. During the process of the guiding wedge block 311 rotating for stirring, the fitting arc surface 314 of the guiding wedge block 311 fits against the side wall of the reaction chamber 131, so that the side wall scraper rod 32 can scrape off the sediment attached to the side wall of the reaction chamber 131, and the scraped off part of the sediment can be guided by the stirring surface 315 of the guiding wedge block 311 to move toward the dispersion filter 312. During the stirring process, the mixed liquid can drive part of the sediment to pass through the dispersion filter 312 to disperse the sediment into extremely small particles. The dispersed small particles are brought into the guiding groove 316 by the mixed liquid, and then flow toward the direction of the one-way guide block 318 through the guiding inclined surface 317. The mixed liquid and the dispersed small particles pass through the Tesla groove 319 of the one-way guide block 318. Since the Tesla groove 319 is much smaller than the guide groove 316 in width, when the mixed liquid continuously enters the guide groove 316, the pressure in the guide groove 316 is increased. Then, the mixed liquid passes through the Tesla groove 319 with a smaller width, so that the flow speed of the mixed liquid becomes faster and flows out from the other end of the Tesla groove 319. The mixed liquid that flows out can impact the guide plate 74 at a faster speed. The impact of the mixed liquid causes the guide plate 74 to rotate, and the guide plate 74 can drive the air guide rod 73 to rotate. The rotation of the guide plate 74 can cause the mixed liquid to mix in the mixing reaction chamber 231, thereby improving the mixing efficiency, and the mixing reaction chamber 231 is The mixed liquid in 31 can flow to the middle of the reaction chamber 131 through the mixing groove 232 for remixing, and the mixed liquid near the side wall of the reaction chamber 131 can be made to flow to the middle of the reaction chamber 131 for remixing, thereby improving the overall mixing effect and preventing the mixed liquid near the side wall of the reaction chamber 131 from being fully mixed and reacted with the mixed liquid near the middle due to centrifugal force. In this case, the organic liquid and the degradation agent can be mixed more evenly through the synergistic effect of the rotating driving shaft 22, the rotating reaction column 23, the guiding wedge block 311, the side wall scraper rod 32 and the stirring rod 313, thereby improving the mixing quality of the mixed liquid. The fitting arc surface 314 of the guiding wedge block 311 can The precipitate attached to the side wall of the reaction chamber 131 is scraped off to prevent the precipitate from being fully mixed and affecting the reaction. During the stirring process, the mixed liquid can drive part of the precipitate to pass through the dispersion filter 312 to disperse it into extremely small particles, thereby improving the efficiency of the reaction. Through the combined action of the guide groove 316, the Tesla groove 319 and the guide plate 74, the mixed liquid can impact the guide plate 74 at a faster speed. When the guide plate 74 rotates, it can mix and stir the mixed liquid in the mixed reaction chamber 231, thereby increasing the contact area between the cosmetic industrial wastewater and hydrogen peroxide in the mixed liquid in the mixed reaction chamber 231, thereby achieving a rapid mixing reaction. The mixed liquid can also flow to the center of the reaction chamber 131 again for re-mixing.That is, the mixed liquid near the side wall of the reaction chamber 131 can be mixed with the mixed liquid near the center of the reaction chamber 131, avoiding the situation where the concentration of the mixed liquid near the side wall and the center of the reaction chamber 131 is greatly different, thereby improving the mixing effect.

[0035] When the sediment attached to the side wall of the reaction chamber 131 is dispersed into small particles through the dispersion filter 312, the mixed liquid can drive some of the small particles into the guide groove 316, and accelerate the flow into the mixed reaction chamber 231 through the Tesla groove 319 under the action of pressure. When the drive motor 21 is started, the operator can open the gas valve 63, so that the auxiliary gas enters the ventilation pipe 61 through the gas valve 63, and the auxiliary gas enters the gas guide cavity 731 from the ventilation pipe 61 through the connecting conduit 722 and the connecting groove 721. The auxiliary gas entering the gas guide cavity 731 can enter the mixed reaction chamber 231 through a plurality of gas guide micropores 732, so that the mixed liquid with some small particles The rapid reaction degradation can be assisted by the auxiliary gas, which greatly improves the degradation speed. In order to allow the gas in the mixed reaction chamber 231 to be discharged upward smoothly, a plurality of exhaust holes are also opened on the top of the mixed reaction chamber 231 for exhaust. The auxiliary gas can also enter the circular tube 62 through the ventilation pipe 61, and then enter the bottom of the reaction chamber 131 through the ventilation micropores 621 on the top of the circular tube 62, thereby assisting the degradation of the mixed liquid in the reaction chamber 131. The introduction of the auxiliary gas can increase the degradation speed of the mixed liquid, thereby improving the reaction efficiency of the mixed liquid in the reaction chamber 131. By simultaneously introducing the auxiliary gas into the mixed reaction chamber 231 and the reaction chamber 131, the auxiliary degradation is improved. Degradation efficiency: In this case, the precipitate attached to the side wall of the reaction chamber 131 can be dispersed into small particles by the dispersion filter 312, thereby increasing the surface area of ​​their contact with the mixed liquid, which is conducive to the degradation reaction. The guide groove 316 can guide some small particles into the mixed reaction chamber 231, so that they are more fully mixed with the mixed liquid, increasing the contact opportunity of the reaction. The Tesla groove 319 can accelerate the flow of the mixed liquid through the action of pressure, so that it flows quickly into the mixed reaction chamber 231, increase the rotation speed of the guide plate 74, and open the air guide valve 63 to allow the auxiliary gas to smoothly enter the ventilation pipe 61, and enter the air guide cavity 731 through the connecting conduit 722 and the connecting groove 721. , and finally enters the mixing reaction chamber 231. The auxiliary gas in the mixing reaction chamber 231 can improve the reaction efficiency of the mixed liquid in the mixing reaction chamber 231 in advance, so that the mixed liquid in the mixing reaction chamber 231 is fully reacted, and then the fully reacted mixed liquid flows into the reaction chamber 131 through the mixing groove 232, so that the unreacted liquid in the fully reacted mixed liquid is mixed and reacted with the mixed liquid in the reaction chamber 131. By introducing auxiliary gas into the mixing reaction chamber 231 and the reaction chamber 131 at the same time, the degradation is assisted, the degradation efficiency is further improved, and the reaction efficiency of the mixed liquid is improved, so that the pollutants in the cosmetics industrial wastewater are fully degraded, and the discharge of pollutants into the natural water source is reduced.

[0036] In another embodiment, the rotation of the air guide rod 73 can drive the connecting cross bar 51 to rotate, the connecting cross bar 51 can drive the cleaning connecting rod 52 to rotate, the cleaning connecting rod 52 can drive the cleaning block 53 to rotate around the central axis of the air guide rod 73, and the cleaning block 53 can slide on the top of the circular tube 62 through the cleaning arc groove 531, so that the cleaning block 53 cleans the sediment or small particles attached to the top of the circular tube 62, so as to prevent the sediment from affecting the ventilation effect of the ventilation micropores 621 at the top of the circular tube 62, thereby affecting the amount of auxiliary gas introduced, and improving the circular tube 62. 2. The cleaning block 53 rotates to drive the dredging spring 533 and the magnetic slider 534 in the magnetic block groove 532 to move above the access tube 62. The movement of the magnetic slider 534 can drive the plurality of conical convex thorns 535 at the bottom to move. When the plurality of conical convex thorns 535 move to the top of the ventilation micropore 621, the elastic force of the dredging spring 533 can make the magnetic slider 534 move downward. The magnetic slider 534 can drive the plurality of conical convex thorns 535 to move downward and penetrate into the ventilation micropore 621. If there is any dirt in the ventilation micropore 621, When the sediment is attached to the inside and cannot be cleaned by the cleaning block 53, a number of conical thorns 535 can puncture or disperse the sediment, and then blow out the dispersed sediment through the ventilation micropores 621, thereby cleaning the inside of the ventilation micropores 621. An attraction can be generated between the magnetic slider 534 and the passive magnetic block 623. When the magnetic slider 534 rotates, it can drive the dredging ring block 622 to slide in the access circular tube 62 through the attraction with the passive magnetic block 623. The sliding of the dredging ring block 622 can clean the dirt hidden in the access circular tube 62 that affects the passage of the auxiliary gas. The ventilation micropores 621 and the air guide micropores 732 are extremely fine ventilation micropores, and the mixed liquid cannot pass through. In this case, the top of the circular tube 62 is cleaned and the dirt hidden inside the circular tube 62 is cleaned, thereby increasing the amount of auxiliary gas introduced, improving efficiency and performance. The cleaning block 53 can clean the sediment or small particles on the top of the circular tube 62 by cleaning the arc groove 531 to avoid affecting the amount of auxiliary gas introduced. The magnetic slider 534 can drive a number of conical thorns 535 to clean the sediment inside the ventilation micropores 621 to avoid affecting the introduction of auxiliary gas, which can effectively improve the cleanliness.

[0037] In another embodiment, the rotation of the rotating reaction column 23 can drive the scraper cross bar 81 to rotate, the scraper cross bar 81 can drive the scraper vertical bar 82 to rotate, the scraper vertical bar 82 can drive the scraper wedge block 83 to rotate, the scraper wedge block 83 can drive the arc scraper 84 to rotate, and the rotation of the arc scraper 84 can scrape the sediment at the bottom of the reaction chamber 131, and through the guidance of the drainage slope 831 on the scraper wedge block 83, the mixed liquid and the sediment at the bottom flow in the direction of the circular tube 62, so that the auxiliary gas introduced from the ventilation micropores 621 can fully react with the mixed liquid for degradation, greatly improving the reaction efficiency. In this case, the scraper cross bar 81 drives the scraper vertical bar 82 to rotate, thereby driving the scraper The rotation of the wedge block 83 eventually causes the arc-shaped scraper 84 to rotate, which can effectively scrape off the sediment at the bottom of the reaction chamber 131 and prevent the sediment from accumulating at the bottom, thereby keeping the reaction chamber 131 clean. Through the guidance of the drainage slope 831 on the scraping wedge block 83, the mixed liquid and sediment at the bottom can flow along the direction of the drainage slope 831, so that they flow in the direction of the circular tube 62, ensuring that the sediment in the mixed liquid at the bottom is fully in contact with the degradation agent, thereby improving the reaction efficiency. The auxiliary gas introduced into the ventilation micropores 621 can undergo a sufficient degradation reaction with the mixed liquid at the bottom. By controlling the amount of auxiliary gas introduced and the contact time with the mixed liquid, the efficiency and speed of the reaction are increased, thereby improving the effect of the reaction.

[0038] Installation process: two support columns 11 are installed on the ground at intervals, the heating shell 12 is fixedly installed between the two support columns 11, the reaction shell 13 is installed in the heating shell 12, the feed pipe 14 is fixedly installed on the top of the reaction shell 13, the discharge pipe 15 is fixedly installed on the bottom of the reaction shell 13, the drive motor 21 is fixedly installed on the top of the reaction shell 13, the drive shaft 22 is rotatably installed on the top of the reaction chamber 131, the rotating reaction column 23 is fixedly installed on the bottom of the drive shaft 22, the side wall scraper 32 is fixedly installed on the end of the two guide wedge blocks 311 away from the rotating reaction column 23, the guide wedge block 311 is fixedly installed on the outer side wall of the rotating reaction column 23, the dispersion filter 312 is fixedly installed on the end of the guide groove 316 close to the stirring surface 315, the stirring rod 313 is fixedly installed on the bottom of the guide wedge block 311, the ventilation pipe 61 is fixedly installed on the side wall of the discharge pipe 15, and the inlet round pipe 62 is fixedly installed on the ventilation pipe The top of the vent pipe 61, the air guide valve 63 is fixedly installed at one end of the vent pipe 61 located outside the discharge pipe 15, two support rods 71 ​​are fixedly installed at the bottom of the reaction chamber 131 at intervals, the connecting circular plate 72 is fixedly installed on the top of the two support rods 71, the air guide rod 73 is rotatably installed on the top of the connecting circular plate 72, two guide plates 74 are fixedly installed on the front side wall of the air guide rod 73, and the other two guide plates 74 are fixedly installed on the rear side wall of the air guide rod 73, and the connecting cross bar 51 is fixedly installed at the bottom of the air guide rod 73, the cleaning connecting rod 52 is fixedly installed at the middle part of the connecting cross bar 51, the cleaning block 53 is fixedly installed at the bottom of the cleaning connecting rod 52, the scraping cross bar 81 is fixedly installed at the bottom of the outer side wall of the rotating reaction column 23, the scraping vertical rod 82 is fixedly installed at the end of the scraping cross bar 81 away from the rotating reaction column 23, the scraping wedge block 83 is fixedly installed at the bottom of the scraping vertical rod 82, and the arc scraper 84 is fixedly installed at the bottom of the drainage slope 831.

[0039] The present case can achieve the following: 1. The reaction chamber 131 is heated by the high-temperature oil in the heating chamber 121, so that the temperature of the reaction chamber 131 gradually rises to a preset temperature, thereby accelerating the degradation reaction and improving the reaction efficiency. The reaction rate between the organic liquid and the degradation agent is accelerated by the heating chamber 121 and the auxiliary mechanism 40, so that the organic liquid can be degraded faster, thereby increasing the degradation speed. The driving mechanism 20 drives the stirring mechanism 30 to stir the mixed liquid in the reaction chamber 131, increasing the contact and mixing effect between the organic liquid and the degradation agent, thereby improving the mixing efficiency and further accelerating the reaction. The cleaning mechanism 50 can clean the gas outlet of the gas guide auxiliary component 60 to prevent blockage, ensure that the auxiliary gas can smoothly enter the reaction chamber 131, and ensure the normal progress of the reaction.

[0040] 2. Through the synergistic effect of the rotating driving shaft 22, the rotating reaction column 23, the guiding wedge block 311, the side wall scraper rod 32 and the stirring rod 313, the organic liquid and the degradation agent can be mixed more evenly, thereby improving the mixing quality of the mixed liquid. The fitting arc surface 314 of the guiding wedge block 311 can scrape off the sediment attached to the side wall of the reaction chamber 131 to prevent the sediment from being unable to be fully mixed and affecting the reaction. During the stirring process, the mixed liquid can drive part of the sediment to pass through the dispersion filter 312 to disperse it into extremely small particles, thereby improving the reaction efficiency. Through the combination of the guiding through groove 316, the Tesla groove 319 and the guide plate 74 The mixed liquid can impact the guide plate 74 at a faster speed. When the guide plate 74 rotates, the mixed liquid in the mixing reaction chamber 231 can be mixed and stirred, thereby increasing the contact area between the cosmetic industrial wastewater and hydrogen peroxide in the mixed liquid in the mixing reaction chamber 231, thereby achieving a rapid mixing reaction. The mixed liquid can also flow to the center of the reaction chamber 131 again for remixing, that is, the mixed liquid near the side wall of the reaction chamber 131 can be mixed with the mixed liquid near the center of the reaction chamber 131, thereby avoiding the situation where the concentration of the mixed liquid near the side wall and the center of the reaction chamber 131 is greatly different, thereby achieving improved mixing effect.

[0041] 3. The precipitate attached to the side wall of the reaction chamber 131 can be dispersed into small particles by the dispersion filter 312, thereby increasing the surface area of ​​the particles in contact with the mixed solution, which is beneficial to the degradation reaction. The guide groove 316 can guide some of the small particles into the mixed reaction chamber 231, so that they are more fully mixed with the mixed solution, increasing the contact opportunity of the reaction. The Tesla groove 319 can accelerate the flow of the mixed solution through the pressure, so that the mixed solution flows quickly into the mixed reaction chamber 231, and the rotation speed of the guide plate 74 is increased. Opening the air guide valve 63 can allow the auxiliary gas to smoothly enter the ventilation pipe 61 and pass through the connecting conduit 722. and the connecting groove 721 to enter the gas guide cavity 731, and finally enter the mixing reaction chamber 231. The auxiliary gas in the mixing reaction chamber 231 can improve the reaction efficiency of the mixed liquid in the mixing reaction chamber 231 in advance, so that the mixed liquid in the mixing reaction chamber 231 is fully reacted, and then the fully reacted mixed liquid flows into the reaction chamber 131 through the mixing groove 232, so that the unreacted liquid in the fully reacted mixed liquid is mixed and reacted with the mixed liquid in the reaction chamber 131. By introducing auxiliary gas into the mixing reaction chamber 231 and the reaction chamber 131 at the same time, degradation is assisted, the degradation efficiency is further improved, and the reaction efficiency of the mixed liquid is improved.

[0042] 4. Clean the top of the circular tube 62 and the dirt hidden inside the circular tube 62, thereby increasing the amount of auxiliary gas introduced, improving efficiency and performance. The cleaning block 53 can clean the sediment or small particles on the top of the circular tube 62 by cleaning the arc groove 531 to avoid affecting the amount of auxiliary gas introduced. The magnetic slider 534 can drive a number of conical burrs 535 to clean the sediment inside the ventilation micropores 621 to avoid affecting the introduction of auxiliary gas, which can effectively improve the cleanliness.

[0043] 5. The scraping horizontal bar 81 drives the scraping vertical bar 82 to rotate, which in turn drives the scraping wedge block 83 to rotate, and finally causes the arc scraper 84 to rotate, which can effectively scrape the sediment at the bottom of the reaction chamber 131 to prevent the sediment from accumulating at the bottom, thereby keeping the reaction chamber 131 clean. Through the guidance of the drainage slope 831 on the scraping wedge block 83, the mixed liquid and sediment at the bottom can flow along the direction of the drainage slope 831, so that they flow in the direction of the circular tube 62, ensuring that the sediment in the mixed liquid at the bottom is fully in contact with the degradation agent, thereby improving the reaction efficiency. The auxiliary gas introduced into the ventilation micropores 621 can fully degrade the mixed liquid at the bottom. By controlling the amount of auxiliary gas introduced and the contact time with the mixed liquid, the efficiency and speed of the reaction are increased, thereby improving the effect of the reaction.

[0044] All possible combinations of the various technical features in the above embodiments are described. However, as long as there is no contradiction in the combination of these technical features, they should be considered to be within the scope of this specification.

[0045] The above-described embodiments only express several embodiments of the present invention, and the descriptions thereof are relatively specific and detailed, but they cannot be understood as limiting the scope of the present invention. It should be pointed out that, for a person of ordinary skill in the art, multiple variations and improvements can be made without departing from the concept of the present invention, and these all belong to the protection scope of the present invention. Therefore, the protection scope of the present invention patent shall be subject to the attached claims.

Claims

1. A reaction device for chemical organic matter degradation, characterized in that: The invention comprises a shell mechanism (10), a driving mechanism (20), two stirring mechanisms (30), an auxiliary mechanism (40) and a cleaning mechanism (50); the shell mechanism (10) comprises two supporting columns (11), a heating shell (12) and a reaction shell (13); the two supporting columns (11) are installed on the ground at intervals; the heating shell (12) is fixedly installed between the two supporting columns (11); the reaction shell (13) is installed in the heating shell (12); a heating cavity (121) is formed between the reaction shell (13) and the heating shell (12); a reaction cavity (131) is formed inside the reaction shell (13); the driving mechanism (20) is fixedly installed on the top of the reaction shell (13); the bottom of the driving mechanism (20) passes through the top of the reaction shell (13) and extends into the reaction cavity (131); a mixing reaction cavity (231) is provided in the driving mechanism (20); The two stirring mechanisms (30) are fixedly mounted on opposite sides of the outer wall of the driving mechanism (20); the auxiliary mechanism (40) comprises a gas guide auxiliary component (60) and a drainage auxiliary component (70); the gas guide auxiliary component (60) is mounted on the bottom of the reaction shell (13) and is partially located at the bottom of the reaction chamber (131); the drainage auxiliary component (70) is mounted on the bottom of the reaction chamber (131), and the top of the drainage auxiliary component (70) passes through the bottom of the driving mechanism (20) and extends into the mixing reaction chamber (231); the gas guide auxiliary component (60) is used to introduce auxiliary gas into the bottom of the reaction chamber (131); the drainage auxiliary component (70) is used to guide part of the auxiliary gas to the middle of the reaction chamber (131); and the cleaning mechanism (50) is fixedly mounted on the bottom of the drainage auxiliary component (70), and the cleaning mechanism (50) is interactively arranged at the bottom of the reaction chamber (131).

2. The reaction device for chemical organic matter degradation according to claim 1, characterized in that: The shell mechanism (10) comprises a feed pipe (14) and a discharge pipe (15); the feed pipe (14) is fixedly mounted on the top of the reaction shell (13), and the feed pipe (14) is in communication with the top of the reaction chamber (131); the discharge pipe (15) is fixedly mounted on the bottom of the reaction shell (13), and the discharge pipe (15) is in communication with the bottom of the reaction chamber (131); a discharge blocking block (151) is mounted on the bottom of the discharge pipe (15); an oil inlet (123) is provided on the top of the rear side of the heating shell (12), and the oil inlet (123) is in communication with the heating chamber (121); and an oil outlet (122) is provided on the bottom of the front side of the heating shell (12), and the oil outlet (122) is in communication with the heating chamber (121).

3. The reaction device for chemical organic matter degradation according to claim 2, characterized in that: The driving mechanism (20) comprises a driving motor (21), a driving shaft (22) and a rotating reaction column (23); the driving motor (21) is fixedly mounted on the top of the reaction shell (13); the driving shaft (22) is rotatably mounted on the top of the reaction chamber (131); the top of the driving shaft (22) passes through the top of the reaction shell (13) and is fixedly connected to the output shaft of the driving motor (21); the rotating reaction column (23) is fixedly mounted on the bottom of the driving shaft (22); a mixing reaction chamber (231) is provided in the rotating reaction column (23); two mixing through grooves (232) are provided on both the front and rear sides of the side wall of the rotating reaction column (23); the two mixing through grooves (232) on the same side are spaced apart from each other; the mixing through grooves (232) are in communication with the mixing reaction chamber (231).

4. The reaction device for chemical organic matter degradation according to claim 3, characterized in that: Two stirring mechanisms (30) are arranged in a circular array around the central axis of the rotating reaction column (23), and the stirring mechanism (30) comprises two mixing guide components (31) and a side wall scraper (32). The two mixing guide components (31) are fixedly mounted on the outer side wall of the rotating reaction column (23), and the two mixing guide components (31) are arranged with an interval up and down. The mixing guide components (31) are used to stir the organic matter in the reaction chamber (131) and guide part of the organic matter near the side wall of the reaction chamber (131) into the mixing reaction chamber (231). The side wall scraper (32) is fixedly mounted on one end of the two mixing guide components (31) away from the rotating reaction column (23), and the side wall scraper (32) is slidably arranged on the side wall of the reaction chamber (131).

5. The reaction device for chemical organic matter degradation according to claim 4, characterized in that: The mixing guide assembly (31) comprises a guide wedge block (311), a dispersion filter (312) and a stirring rod (313). The guide wedge block (311) is fixedly mounted on the outer side wall of the rotating reaction column (23). An end of the guide wedge block (311) away from the rotating reaction column (23) is formed with a fitting arc surface (314). The fitting arc surface (314) is used to guide the wedge block (311) to slide on the side wall of the reaction chamber (131). A stirring surface is formed on one side wall of the guide wedge block (311). (315), a guiding groove (316) is formed at one end of the stirring surface (315) away from the rotating reaction column (23), and the other end of the guiding groove (316) is communicated with the mixing reaction chamber (231), a guiding inclined surface (317) is formed on a side wall of the guiding groove (316) away from the rotating reaction column (23), a dispersion filter (312) is fixedly installed at one end of the guiding groove (316) close to the stirring surface (315), and a stirring rod (313) is fixedly installed at the bottom of the guiding wedge block (311).

6. The reaction device for chemical organic matter degradation according to claim 5, characterized in that: The air guide auxiliary component (60) comprises a ventilation pipe (61), an inlet round pipe (62) and an air guide valve (63); the ventilation pipe (61) is fixedly mounted on the side wall of the discharge pipe (15); one end of the ventilation pipe (61) is located outside the discharge pipe (15); the other end extends from the inside of the discharge pipe (15) through the bottom of the reaction shell (13) to the bottom of the reaction chamber (131); the inlet round pipe (62) is fixedly mounted on the top of the ventilation pipe (61); the inside of the inlet round pipe (62) is connected to the inside of the ventilation pipe (61); a plurality of ventilation micropores (621) are provided on the top of the inlet round pipe (62); and the air guide valve (63) is fixedly mounted on one end of the ventilation pipe (61) located outside the discharge pipe (15).

7. The reaction device for chemical organic matter degradation according to claim 6, characterized in that: The drainage auxiliary component (70) comprises two support rods (71), a connecting circular plate (72), an air guide rod (73) and four guide plates (74); the two support rods (71) are fixedly installed at intervals on the bottom of the reaction chamber (131); the connecting circular plate (72) is fixedly installed on the top of the two support rods (71); the air guide rod (73) is rotatably installed on the top of the connecting circular plate (72); the top of the air guide rod (73) passes through the bottom of the rotating reaction column (23) and extends to the upper part of the mixing reaction chamber (231); the air guide rod (73) and the rotating reaction column (23) are rotatably matched; the two guide plates (74) are fixedly installed on the front side wall of the air guide rod (73); the other two guide plates (74) are fixedly installed on the rear side wall of the air guide rod (73); and Two guide plates (74) on the same side are arranged at intervals in the upper and lower parts, and the two guide plates (74) at the same height are arranged symmetrically. A connecting groove (721) extending to the bottom is provided at the top of the connecting circular plate (72). A connecting duct (722) is fixedly mounted at the bottom of the connecting circular plate (72), and the bottom of the connecting duct (722) is communicated with the inside of the ventilation duct (61). The top of the connecting duct (722) is communicated with the bottom of the connecting groove (721). An air guiding cavity (731) is provided at the bottom of the air guiding rod (73), and the bottom of the air guiding cavity (731) is communicated with the top of the connecting groove (721). A plurality of air guiding micropores (732) are provided on the front and rear side walls of the air guiding rod (73), and the air guiding micropores (732) are communicated with the air guiding cavity (731).

8. The reaction device for chemical organic matter degradation according to claim 7, characterized in that: The cleaning mechanism (50) comprises a connecting crossbar (51), a cleaning connecting rod (52) and a cleaning block (53). The connecting crossbar (51) is fixedly mounted on the bottom of the air guide rod (73). The cleaning connecting rod (52) is fixedly mounted on the middle of the connecting crossbar (51). The cleaning block (53) is fixedly mounted on the bottom of the cleaning connecting rod (52). A cleaning arc groove (531) is formed at the bottom of the cleaning block (53). The cleaning arc groove (531) is fitted with the top of the inlet round tube (62). The cleaning block (53) The cleaning arc groove (531) can slide on the top of the circular tube (62); a magnetic block groove (532) is provided on the top of the cleaning arc groove (531); a dredging spring (533) is fixedly installed on the top of the magnetic block groove (532); a magnetic attraction slider (534) is fixedly installed on the bottom of the dredging spring (533); a plurality of conical convex thorns (535) are protruding from the bottom of the magnetic attraction slider (534); and the ends of the plurality of conical convex thorns (535) can enter the ventilation micropores (621).

9. The reaction device for chemical organic matter degradation according to claim 8, characterized in that: A scraping assembly (80) is also provided at the bottom of the outer side wall of the rotating reaction column (23). The scraping assembly (80) includes a scraping cross bar (81), a scraping vertical bar (82), a scraping wedge block (83) and an arc-shaped scraper (84). The scraping cross bar (81) is fixedly mounted on the bottom of the outer side wall of the rotating reaction column (23). The scraping vertical bar (82) is fixedly mounted on one end of the scraping cross bar (81) away from the rotating reaction column (23). The scraping wedge block (83) is fixedly mounted on the bottom of the scraping vertical bar (82). The bottom of the scraping wedge block (83) is slidably disposed at the bottom of the reaction chamber (131); a drainage slope (831) is formed on one side wall of the scraping wedge block (83); the distance between the drainage slope (831) and the side wall of the scraping wedge block (83) that is away from the drainage slope (831) gradually decreases toward the direction of the connecting circular plate (72); the arc-shaped scraper (84) is fixedly mounted on the bottom of the drainage slope (831), and the bottom of the arc-shaped scraper (84) is slidably disposed at the bottom of the reaction chamber (131).

10. The reaction device for chemical organic matter degradation according to claim 9, characterized in that: A one-way guide block (318) is fixedly installed in the guide groove (316), and a Tesla groove (319) is provided in the one-way guide block (318). The Tesla groove (319) has the same principle as the Tesla valve and is used to guide the liquid in the groove (316) away from one end of the rotating reaction column (23) to accelerate the flow toward the end close to the rotating reaction column (23). A dredging ring block (622) is slidably installed in the passage tube (62), and a passive magnetic block (623) is embedded on the top of the dredging ring block (622). The polarity of the passive magnetic block (623) is opposite to that of the magnetic slider (534). When the magnetic slider (534) moves, the passive magnetic block (623) can drive the dredging ring block (622) to move in the passage tube (62).

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