Microbubble reaction device

Abstract

The invention belongs to the technical field of microbubble reaction, and discloses a microbubble reaction device which comprises a liquid storage mechanism, a reaction mechanism, a discharge mechanism and a flow guide mechanism, the reaction mechanism is mounted on the liquid storage mechanism, the discharge mechanism is arranged in the liquid storage mechanism, and the flow guide mechanism is arranged in the liquid storage mechanism; the liquid storage mechanism comprises a liquid storage tank, a supporting block is installed on one side in the liquid storage tank, a heating plate is installed in the supporting block, a set of heat conduction rods extending to the lower portion are installed in the supporting block, and one end of each heat conduction rod can make contact with the heating plate; the reaction mechanism comprises a reaction barrel, the reaction barrel is mounted on the liquid storage tank, a water inlet pipe is mounted in the reaction barrel, and one end of the water inlet pipe extends to the outside of the reaction barrel. According to the design, the reaction speed of the wastewater and the microbubbles can be increased, and meanwhile, the microbubble reaction process can have flowability and continuity, so that the wastewater treatment efficiency is improved.

Description

Technical Field

[0001] The invention belongs to the technical field of microbubble reactions, in particular to a microbubble reaction device. Background Art

[0002] At present, microbubble reaction devices are used to improve wastewater treatment. Microbubble reaction devices significantly improve the gas-liquid mass transfer efficiency and promote the chemical reaction process through their unique physical properties, such as large specific surface area and long residence time. This technology not only strengthens the redox reaction of difficult-to-degrade pollutants, but also improves the oxygen transfer efficiency in the biological fermentation process. During use, the existing microbubble reaction device is usually carried out in a reaction container. A certain amount of wastewater is added to the reaction container, and then microbubbles are injected into the wastewater through a microbubble generator to make the wastewater appear milky white. After the microbubbles are fully in contact with the wastewater and react, the reacted wastewater is discharged. This treatment method requires the wastewater to be treated in batches, which will reduce the efficiency of wastewater treatment, so that the wastewater cannot meet the needs of continuous treatment, thereby prolonging the time of wastewater treatment.

[0003] Therefore, a microbubble reaction device is proposed to solve the above problems. Summary of the invention

[0004] In order to solve the problems raised in the above background technology, the present invention provides a microbubble reaction device.

[0005] To achieve the above-mentioned object, the present invention provides the following technical solutions: a microbubble reaction device, comprising a liquid storage mechanism, a reaction mechanism, a discharge mechanism and a flow guiding mechanism; The reaction mechanism is installed on the liquid storage mechanism, the discharge mechanism is arranged in the liquid storage mechanism, and the flow guide mechanism is arranged in the liquid storage mechanism; The liquid storage mechanism comprises a liquid storage tank, a support block is installed on one side of the liquid storage tank, a heating plate is installed in the support block, a group of heat-conducting rods extending downward are installed inside the support block, and one end of the heat-conducting rod can contact the heating plate; The reaction mechanism comprises a reaction barrel, which is mounted on a liquid storage tank, a water inlet pipe is mounted in the reaction barrel, one end of the water inlet pipe extends to the outside of the reaction barrel, and the other end of the water inlet pipe is close to the bottom of the inner cavity of the reaction barrel, a micro-bubble generator is mounted on the front of the reaction barrel, and the bubble outlet end of the micro-bubble generator extends into the reaction barrel, a water outlet pipe is mounted in the reaction barrel, one end of the water outlet pipe extends to the bottom of the reaction barrel, the other end of the water outlet pipe is connected to a corrugated hose located in the reaction barrel, the bottom end of the corrugated hose is connected to a water inlet head, the water inlet head is slidably mounted in the reaction barrel, and a buoy 1 is mounted on the water inlet head; The guide mechanism includes a ripple box, which is installed in a liquid storage tank. A guide plate is fixedly installed on the upper part of the ripple box near the water outlet pipe port. The bottom of the inner cavity of the ripple box is rippled and close to the heat conduction rod. One side of the guide plate is a plane, and the other side of the guide plate is an inclined surface. A filter plate is connected to the inclined surface inside the guide plate.

[0006] Preferably, inclined grooves are provided at the front and rear sides of the interior of the corrugation box, and a movable rod that can move in the corrugation box is slidably installed inside the inclined groove, both ends of the movable rod are connected to movable shafts located outside the corrugation box, a movable sleeve is connected to the central movable sleeve outside the movable rod, a fixed rod is connected to the bottom of the movable sleeve, and a scraper that can abut against the filter plate is connected to the bottom of the fixed rod, and a collecting box that can be connected to the filter plate is installed in the corrugation box.

[0007] Preferably, an arc sleeve is installed inside the movable rod, and an arc block is provided in the movable sleeve inside the arc sleeve. One side of the arc block is connected to an arc spring located in the corrugation box, and the other end of the arc spring is connected to the inner wall of the arc sleeve, and the other side of the arc block is connected to the movable sleeve, and a groove panel is installed in the corrugation box.

[0008] Preferably, mounting blocks are connected to both sides of the outside of the movable rod, connecting blocks are connected to both sides of the movable sleeve, a clamping block that can abut against the mounting block is provided in the movable sleeve inside the connecting block, a spring 2 is connected to the other side of the clamping block, and the other end of the spring 2 is connected to the inner wall of the connecting block.

[0009] Preferably, the front and rear sides of the bellows box are connected with extrusion rods, the mounting block is movably sleeved with a sleeve rod that can abut against the extrusion rod, and the abutting surfaces of the extrusion rod and the sleeve rod are both hemispherical.

[0010] Preferably, the discharge mechanism includes a drain pipe, which is installed at the bottom of the inner cavity of the liquid storage tank and one end of which extends to the outside of the liquid storage tank. A plurality of through holes are opened on the outside of the drain pipe, and the external sliding sleeve of the drain pipe is provided with a sealing cover that can close the through holes. A tension spring is connected to one side of the sealing cover, and the other end of the tension spring is connected to the drain pipe, and a magnetic block is connected to the other side of the sealing cover.

[0011] Preferably, a bracket is installed in the liquid storage tank, the bottom of the bracket is connected to the drain pipe, a slider is slidably installed inside the bracket, one side of the slider is connected to a float 2, the internal movable sleeve of the slider is provided with a lifting rod, the bottom end of the lifting rod is connected to a magnetic block 2 that can generate magnetic attraction to a magnetic block 1, the outer sleeve of the lifting rod is provided with a spring 1, and the two ends of the spring 1 are respectively connected to the lifting rod and the slider.

[0012] Preferably, a connecting rod is connected to the top of the second buoy, and a connecting plate located outside the movable shaft is connected to the top of the connecting rod, and the movable shaft can move inside the connecting plate.

[0013] Compared with the prior art, the present invention has the following beneficial effects: The present invention provides a ripple box and a heat-conducting rod to allow wastewater to continuously enter the reaction barrel through the water inlet pipe. The operation of the micro-bubble generator will inject micro-bubbles into the wastewater inside the reaction barrel. As the water level inside the reaction barrel rises, the water inlet head will float up through the buoy. When the water level reaches the highest point of the outlet pipe, the wastewater above the reaction barrel can be discharged to the guide plate through the corrugated hose. Since there is a height difference between the port of the water inlet pipe and the port after the water inlet head rises, the incoming wastewater has enough time to react initially with the injected micro-bubbles when it reaches the water inlet head. When the wastewater flows to the guide plate, it will first contact the plane on the guide plate, be leveled and diffused on the ripple box, and then flow to the inclined surface of the guide plate. In the process of flowing through the inclined surface of the guide plate, the wastewater in the wastewater The suspended matter will be intercepted by the filter plate, and the wastewater will be guided by the inclined surface of the guide plate to the corrugated groove at the bottom of the inner cavity of the corrugated box, and flow along the corrugated groove to the heat-conducting rod, and the wastewater will flow down along the outside of the heat-conducting rod to the liquid storage tank. Due to the design of the heat-conducting rod, the flow rate of the downstream wastewater can be reduced to avoid the impact of the downstream flow mode with too fast flow rate, which will cause the loss of microbubbles in the wastewater. At the same time, the operation of the heating plate can transfer heat to the heat-conducting rod, so that the wastewater is heated in the process of flowing down along the heat-conducting rod, thereby accelerating the reaction efficiency of microbubbles and wastewater. Finally, the wastewater in the liquid storage tank will be discharged through the discharge mechanism. This design can accelerate the reaction speed of wastewater and microbubbles, and at the same time make the microbubble reaction process fluid and continuous, thereby improving the efficiency of wastewater treatment.

[0014] The present invention arranges float 2, spring 1 and magnetic block 2. As wastewater enters the liquid storage tank, the water level in the liquid storage tank rises, and at the same time, the float 2 and the slider float up. Due to the rise of the slider, the spring 1 can be gradually squeezed, so that the elastic force of the spring 1 gradually increases. When the elastic force of the spring 1 is greater than the magnetic attraction between the magnetic block 2 and the magnetic block 1, the lifting rod and the magnetic block 2 will be driven to rise and reset quickly under the elastic force recovery effect of the spring 1. At the same time, the magnetic attraction between the magnetic block 2 and the magnetic block 1 is lost. At this time, the tension spring in the stretched state will pull the sealing cover to move and release the closure of the through hole due to the recovery effect of the elastic force, so that the wastewater in the liquid storage tank is quickly discharged through the drain pipe. In the process of the gradual increase of the elastic force of the spring 1, sufficient reaction time can be left for the wastewater and microbubbles in the liquid storage tank, thereby ensuring the completeness of the reaction.

[0015] The present invention arranges an arc spring and a scraper. When the buoy rises, the connecting rod and the connecting plate are driven to rise together, and the movable shaft is pushed by squeezing to drive the movable rod, the movable sleeve, the fixed rod and the scraper to rise along the inclined slot. Due to the rising of the scraper, the suspended matter trapped on the filter plate can be removed, thereby avoiding clogging of the filter plate. When the scraper rises and separates from the filter plate, the arc block, which is in a semi-compressed state at this time, can drive the arc block and the movable sleeve to rotate along the movable rod due to the elastic recovery effect, and at the same time drive the fixed rod and the scraper to swing rapidly, so that the suspended matter removed by the scraper falls into the collection box under the action of inertia, thereby avoiding the suspended matter adhering to the scraper and being difficult to fall, and then the suspended matter can be collected in the collection box, avoiding clogging of the filter plate. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 It is a schematic diagram of the structure of the present invention; Figure 2 It is a schematic cross-sectional structural diagram of the liquid storage tank of the present invention; Figure 3 It is a schematic diagram of the structure of the present invention in section; Figure 4 for Figure 3 A schematic diagram of the local enlarged structure at point A in the middle; Figure 5 for Figure 4 A schematic diagram of the local enlarged structure at C in the middle; Figure 6 for Figure 3 A schematic diagram of the local enlarged structure at B in the middle; Figure 7 It is a schematic diagram of the structure inside the liquid storage tank of the present invention; Figure 8 It is a structural schematic diagram of the discharge mechanism of the present invention; Fig. 9 It is a structural schematic diagram of the movable rod of the present invention; Fig.10 It is a schematic cross-sectional structural diagram of the connecting block of the present invention; Fig.11 for Fig.10 A schematic diagram of the local enlarged structure at D in the middle; Fig.12 It is a schematic cross-sectional structural diagram of the mounting block of the present invention; Fig.13 for Fig.12 A schematic diagram of the local enlarged structure at E in the middle; Fig.14 It is a structural schematic diagram of the corrugation box of the present invention; Fig.15 for Fig.14 Schematic diagram of the local enlarged structure at F in the middle.

[0017] In the figure: 1, liquid storage mechanism; 11, liquid storage tank; 12, support block; 13, heating plate; 14, heat conducting rod; 2, reaction mechanism; 21, reaction barrel; 22, micro bubble generator; 23, water inlet pipe; 24, water outlet pipe; 25, corrugated hose; 26, water inlet head; 27, float one; 3, discharge mechanism; 31, drain pipe; 32, through hole; 33, sealing cover; 34, tension spring; 35, bracket; 36, slider; 37, float two; 38, lifting rod; 39, spring one; 310, connecting rod; 311, connecting rod; 312, connecting rod; 313, connecting rod; 314, connecting rod; 315, connecting rod; 316, connecting rod; 317, connecting rod; 318, connecting rod; 319, connecting rod; 320, connecting rod; 321, connecting rod; 322, connecting rod; 323, connecting rod; 324, connecting rod; 325, connecting rod; 326, connecting rod; 327, connecting rod; 328, connecting rod; 329, connecting rod; 330, connecting rod; 331, connecting rod; 332, connecting rod; 333, connecting rod; 334, connecting rod; 335, connecting rod; 336, connecting rod; 337, connecting rod; 338, connecting rod; 339, connecting rod; 3310, connecting rod; 3311, connecting rod; 3312, connecting rod; 3313 ... 1. Connecting plate; 312. Magnetic block one; 313. Magnetic block two; 4. Guide mechanism; 41. Corrugation box; 42. Guide plate; 43. Filter plate; 44. Collecting box; 45. Groove panel; 46. Inclined groove; 47. Movable rod; 48. Movable sleeve; 49. Arc sleeve; 410. Arc block; 411. Arc spring; 412. Fixed rod; 413. Scraper; 414. Movable shaft; 415. Mounting block; 416. Sleeve rod; 417. Extrusion rod; 418. Connecting block; 419. Clamp block; 420. Spring two. DETAILED DESCRIPTION

[0018] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0019] like Figures 1 to 15 As shown, the present invention provides a microbubble reaction device, comprising a liquid storage mechanism 1, a reaction mechanism 2, a discharge mechanism 3 and a flow guiding mechanism 4; The reaction mechanism 2 is installed on the liquid storage mechanism 1, the discharge mechanism 3 is arranged in the liquid storage mechanism 1, and the flow guide mechanism 4 is arranged in the liquid storage mechanism 1; The liquid storage mechanism 1 comprises a liquid storage tank 11, a support block 12 is installed on one side of the liquid storage tank 11, a heating plate 13 is installed in the support block 12, a group of heat-conducting rods 14 extending downward are installed inside the support block 12, and one end of the heat-conducting rods 14 can contact with the heating plate 13; The reaction mechanism 2 includes a reaction barrel 21, which is mounted on the liquid storage tank 11. A water inlet pipe 23 is mounted in the reaction barrel 21. One end of the water inlet pipe 23 extends to the outside of the reaction barrel 21, and the other end of the water inlet pipe 23 is close to the bottom of the inner cavity of the reaction barrel 21. A microbubble generator 22 is mounted on the front of the reaction barrel 21. The bubble outlet end of the microbubble generator 22 extends into the reaction barrel 21. A water outlet pipe 24 is mounted in the reaction barrel 21. One end of the water outlet pipe 24 extends to the bottom of the reaction barrel 21. The other end of the water outlet pipe 24 is connected to a corrugated hose 25 located in the reaction barrel 21. The bottom end of the corrugated hose 25 is connected to a water inlet head 26. The water inlet head 26 is slidably mounted in the reaction barrel 21 and can be raised and lowered in the reaction barrel 21. A float 27 is mounted on the water inlet head 26. The guide mechanism 4 includes a ripple box 41, which is installed in the liquid storage tank 11. A guide plate 42 is fixedly installed on the upper part of the ripple box 41 near the end of the water outlet pipe 24. The bottom of the inner cavity of the ripple box 41 is rippled and close to the heat conduction rod 14. One side of the guide plate 42 is a plane, and the other side of the guide plate 42 is an inclined surface. A filter plate 43 is connected to the inclined surface inside the guide plate 42.

[0020] The above scheme is adopted: wastewater is continuously introduced into the reaction barrel 21 through the water inlet pipe 23, and the operation of the microbubble generator 22 will inject microbubbles into the wastewater inside the reaction barrel 21. As the water level inside the reaction barrel 21 rises, the water inlet head 26 will be driven to float up through the float 27. When the water level reaches the highest point of the water outlet pipe 24, the wastewater above the reaction barrel 21 can be discharged to the guide plate 42 through the corrugated hose 25. Since there is a height difference between the port of the water inlet pipe 23 and the port of the water inlet head 26 after the water inlet head 26 rises, the incoming wastewater has enough time to react initially with the injected microbubbles when it reaches the water inlet head 26. When the wastewater flows to the guide plate When the wastewater flows on the guide plate 42, it will first contact the plane on the guide plate 42, and be leveled and diffused on the folding box 41, and then flow to the inclined surface of the guide plate 42. In the process of flowing through the inclined surface of the guide plate 42, the suspended matter in the wastewater will be intercepted by the filter plate 43, and the wastewater is guided by the inclined surface of the guide plate 42 to the folding groove at the bottom of the inner cavity of the folding box 41, and flows along the folding groove to the heat-conducting rod 14, and the wastewater flows down along the outside of the heat-conducting rod 14 to the liquid storage tank 11. At the same time, the heating plate 13 is running, which can conduct heat to the heat-conducting rod 14, so that the wastewater is heated in the process of flowing down along the heat-conducting rod 14, thereby accelerating the reaction efficiency of the microbubbles and the wastewater.

[0021] like Figure 3 , Figure 6 , Figures 9 to 15As shown, inclined grooves 46 are provided at the front and rear sides of the interior of the corrugation box 41, and a movable rod 47 that can move in the corrugation box 41 is slidably installed inside the inclined grooves 46. Both ends of the movable rod 47 are connected to movable shafts 414 located outside the corrugation box 41. The central movable sleeve outside the movable rod 47 is connected to a movable sleeve 48. The bottom of the movable sleeve 48 is connected to a fixed rod 412. The bottom of the fixed rod 412 is connected to a scraper 413 that can abut against the filter plate 43. A collecting box 44 that can be connected to the filter plate 43 is installed in the corrugation box 41.

[0022] According to the above scheme, the movable shaft 414 drives the movable rod 47, the movable sleeve 48, the fixed rod 412 and the scraper 413 to rise along the inclined groove 46. As the scraper 413 rises, the suspended matter trapped on the filter plate 43 can be removed, thereby avoiding clogging of the filter plate 43.

[0023] like Figure 3 , Figure 6 , Figures 9 to 15 As shown, an arc sleeve 49 is installed inside the movable rod 47, and an arc block 410 is provided in the movable sleeve inside the arc sleeve 49. One side of the arc block 410 is connected to an arc spring 411 located in the folding box 41, and the other end of the arc spring 411 is connected to the inner wall of the arc sleeve 49. The other side of the arc block 410 is connected to the movable sleeve 48, and a groove panel 45 is installed in the folding box 41.

[0024] The above scheme is adopted: when the scraper 413 rises and separates from the filter plate 43, the arc block 410 is in a semi-compressed state. Due to the elastic recovery effect, it can drive the arc block 410 and the movable sleeve 48 to rotate along the movable rod 47, and at the same time drive the fixed rod 412 and the scraper 413 to swing rapidly, so that the suspended matter removed by the scraper 413 falls into the collection box 44 under the action of inertia, thereby preventing the suspended matter from adhering to the scraper 413 and being difficult to fall.

[0025] like Figure 3 , Figure 6 , Figures 9 to 15 As shown, mounting blocks 415 are connected to both sides of the outside of the movable rod 47, connecting blocks 418 are connected to both sides of the movable sleeve 48, a clamping block 419 is provided inside the connecting block 418 and can abut against the mounting block 415, a spring 420 is connected to the other side of the clamping block 419, and the other end of the spring 420 is connected to the inner wall of the connecting block 418.

[0026] like Figure 3 , Figure 6 , Figures 9 to 15 As shown, the front and rear sides of the corrugation box 41 are connected with an extrusion rod 417, and the internal movable sleeve of the mounting block 415 is provided with a sleeve rod 416 that can abut against the extrusion rod 417, and the abutting surfaces of the extrusion rod 417 and the sleeve rod 416 are both hemispherical.

[0027] By adopting the above scheme: due to the rotation of the movable sleeve 48, the arc block 410 can be extended into the arc sleeve 49 to completely compress the arc spring 411, and the connecting block 418 rotates together, and finally the clamping block 419 rotates to the sleeve rod 416. The spring 2 420 in the compressed state can push the movable sleeve 48 to be clamped into the mounting block 415 under the action of elastic recovery, and push the sleeve rod 416 outward for a part, and at this time the fixed rod 412 is fixed in a horizontal state.

[0028] The above scheme is adopted: when the sleeve rod 416 descends to the extrusion rod 417, under the extrusion action of the extrusion rod 417, the sleeve rod 416 is pushed back to the mounting block 415 and reset, and the clamping block 419 is pushed back to the connecting block 418, and the spring 2 420 is compressed again. Due to the elastic recovery effect of the arc spring 411, the arc block 410, the movable sleeve 48, the fixed rod 412 and the scraper 413 can be driven to rotate, so that the suspended matter intercepted by the filter plate 43 is shoveled into the scraper 413.

[0029] like Figures 3 to 5 , Figure 7 and Figure 8 As shown, the discharge mechanism 3 includes a drain pipe 31, which is installed at the bottom of the inner cavity of the liquid storage tank 11 and one end of which extends to the outside of the liquid storage tank 11. A plurality of through holes 32 are opened on the outside of the drain pipe 31. The external sliding sleeve of the drain pipe 31 is provided with a sealing cover 33 that can close the through holes 32. A tension spring 34 is connected to one side of the sealing cover 33, and the other end of the tension spring 34 is connected to the drain pipe 31. The other side of the sealing cover 33 is connected to a magnetic block 312.

[0030] With the above solution, the tension spring 34 is in a stretched state, and due to the restoring effect of the elastic force, the sealing cover 33 is pulled to move and release the seal of the through hole 32 , so that the waste water in the liquid storage tank 11 is quickly discharged through the drain pipe 31 .

[0031] like Figures 3 to 5 , Figure 7 and Figure 8 As shown, a bracket 35 is installed in the liquid storage tank 11, the bottom of the bracket 35 is connected to the drain pipe 31, a slider 36 is slidably installed inside the bracket 35, one side of the slider 36 is connected to a float 2 37, the internal movable sleeve of the slider 36 is provided with a lifting rod 38, the bottom end of the lifting rod 38 is connected to a magnetic block 2 313 that can generate magnetic attraction to the magnetic block 1 312, the outer sleeve of the lifting rod 38 is provided with a spring 1 39, and the two ends of the spring 1 39 are respectively connected to the lifting rod 38 and the slider 36.

[0032] The above scheme is adopted: as the water level in the liquid storage tank 11 rises, the float 2 37 and the slider 36 can be driven to float up. Due to the rise of the slider 36, the spring 1 39 can be gradually squeezed, so that the elastic force of the spring 1 39 gradually increases. When the elastic force of the spring 1 39 is greater than the magnetic attraction between the magnet block 2 313 and the magnet block 1 312, the elastic force of the spring 1 39 will restore the lifting rod 38 and the magnet block 2 313 to rise and reset quickly. At the same time, the magnetic attraction between the magnet block 2 313 and the magnet block 1 312 is lost, and the elastic force of the tension spring 34 in the stretched state is released.

[0033] like Figures 3 to 5 , Figure 7 and Figure 8 As shown, a connecting rod 310 is connected to the top of the buoy 37 , and a connecting plate 311 located outside a movable shaft 414 is connected to the top of the connecting rod 310 . The movable shaft 414 can move inside the connecting plate 311 .

[0034] By adopting the above scheme, when the buoy 37 rises, the connecting rod 310 and the connecting plate 311 will be driven to rise together, and the movable shaft 414 will be squeezed to drive the movable rod 47, the movable sleeve 48, the fixed rod 412 and the scraper 413 to rise along the inclined groove 46, thereby having a good driving effect on the movable rod 47.

[0035] The working principle and use process of the present invention: The wastewater is continuously introduced into the reaction barrel 21 through the water inlet pipe 23. The operation of the microbubble generator 22 will inject microbubbles into the wastewater inside the reaction barrel 21. Since the water entering the water inlet pipe 23 is passed into the lower part of the reaction barrel 21, the wastewater can contact with the microbubbles injected by the microbubble generator 22 when entering the reaction barrel 21. As the water level inside the reaction barrel 21 rises, the water inlet head 26 will float up through the float 27, and the corrugated hose 25 will shrink. When the water level reaches the highest point of the water outlet pipe 24, the wastewater above the reaction barrel 21 can be discharged to the guide plate 42 through the corrugated hose 25, and will first contact with the plane on the guide plate 42, and level and diffuse on the corrugated box 41, and then flow to the inclined surface of the guide plate 42 In the process of flowing through the inclined surface of the guide plate 42, the suspended matter in the wastewater will be intercepted by the filter plate 43, thereby realizing the filtration of impurities, and the wastewater is guided by the inclined surface of the guide plate 42 to the corrugated groove at the bottom of the inner cavity of the corrugated box 41, and flows along the corrugated groove to the heat-conducting rod 14, and the wastewater flows down along the outside of the heat-conducting rod 14 to the liquid storage tank 11. Due to the design of the heat-conducting rod 14, the flow rate of the downstream wastewater can be reduced, and the impact caused by the downstream flow mode with too fast flow rate can be avoided, which leads to the loss of microbubbles in the wastewater. At the same time, the operation of the heating plate 13 can transfer heat to the heat-conducting rod 14, so that the wastewater is heated in the process of flowing down along the heat-conducting rod 14, thereby accelerating the reaction efficiency of microbubbles and wastewater, and finally the wastewater in the liquid storage tank 11 will be discharged through the discharge mechanism 3.

[0036] As the wastewater enters the liquid storage tank 11, the water level in the liquid storage tank 11 rises, and at the same time, the float 2 37 and the slider 36 float up. Due to the rise of the slider 36, the spring 1 39 can be gradually squeezed, so that the elastic force of the spring 1 39 gradually increases. When the elastic force of the spring 1 39 is greater than the magnetic attraction between the second magnetic block 313 and the first magnetic block 312, the elastic force of the spring 1 39 will restore the lifting rod 38 and the second magnetic block 313 to quickly rise and reset. At the same time, the magnetic attraction between the second magnetic block 313 and the first magnetic block 312 is lost. At this time, the tension spring 34 in the stretched state will pull the sealing cover 33 to move and release the closure of the through hole 32 due to the recovery effect of the elastic force, so that the wastewater in the liquid storage tank 11 quickly passes through the drain pipe 3 1 is discharged. In the process that the elastic force of the spring 1 39 gradually increases, sufficient reaction time can be left for the wastewater and microbubbles in the liquid storage tank 11 to ensure the completeness of the reaction. Due to the rapid discharge of the wastewater in the liquid storage tank 11, the water level in the liquid storage tank 11 can be rapidly reduced. At the same time, the float 2 37, the slider 36, the lifting rod 38 and the magnetic block 2 313 are lowered together. When the magnetic block 2 313 is lowered to the drain pipe 31 again, the magnetic block 1 312 can be magnetically attracted by the magnetic block 2 313 again, and under the action of the magnetic attraction, the sealing cover 33 is driven to reset and move, and the through hole 32 is continuously closed. The tension spring 34 is continuously stretched, thereby leaving sufficient reaction time for the wastewater and microbubbles that subsequently enter the liquid storage tank 11.

[0037] When the buoy 37 rises, the connecting rod 310 and the connecting plate 311 will be driven to rise together, and the movable rod 47, the movable sleeve 48, the fixed rod 412 and the scraper 413 will be driven to rise along the inclined groove 46 by squeezing and pushing the movable shaft 414. Due to the rise of the scraper 413, the suspended matter trapped on the filter plate 43 can be removed, thereby avoiding the blockage of the filter plate 43. When the scraper 413 rises and separates from the filter plate 43, it is in a semi-compressed state. The arc block 410 can drive the arc block 410 and the movable sleeve 48 to rotate along the movable rod 47 due to the elastic recovery effect, and at the same time drive the fixed rod 412 and the scraper 413 to swing quickly, so that the suspended matter removed by the scraper 413 falls into the collection box 44 under the action of inertia, thereby avoiding the suspended matter. Objects attached to the scraper 413 are difficult to fall. As the movable rod 47 continues to rise, the movable sleeve 48 can be brought into contact with the groove panel 45. Since the groove panel 45 and the movable sleeve 48 are both rough surfaces, static friction can be generated between the two. Under the action of friction, the movable sleeve 48, the fixed rod 412 and the scraper 413 are driven to rotate along the movable rod 47, so that the arc block 410 extends into the arc sleeve 49 to completely compress the arc spring 411, and the connecting block 418 rotates together at the same time, and finally the clamping block 419 rotates to the sleeve rod 416. The compressed spring 420 can push the movable sleeve 48 to be stuck in the mounting block 415 under the action of elastic recovery, and push the sleeve rod 416 outward a section. At this time, the fixed rod 412 is fixed in a horizontal state.

[0038] When the second buoy 37 descends, it will drive the connecting rod 310 and the connecting plate 311 to descend together, and by squeezing and pushing the movable shaft 414, the movable rod 47, the movable sleeve 48, the fixed rod 412 and the scraper 413 are driven to descend and reset along the inclined groove 46, so that the sleeve rod 416 descends to the squeezing rod 417, and under the squeezing action of the squeezing rod 417, the sleeve rod 416 is pushed back to the top of the mounting block 415 and reset, and the clamping block 419 is pushed back to the top of the connecting block 418, and the second spring 420 is compressed again. Due to the elastic recovery effect of the arc spring 411, the arc block 410, the movable sleeve 48, the fixed rod 412 and the scraper 413 can be driven to rotate, and the suspended matter intercepted by the filter plate 43 can be shoveled into the scraper 413, so that the scraper 413 and the filter plate 43 are abutted again. At this time, the elastic force of the arc spring 411 is reset by half, so as to facilitate the subsequent hanging and removing operation.

[0039] It should be noted that, in this article, relational terms such as first and second, etc. are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Moreover, the terms "include", "comprise" or any other variants thereof are intended to cover non-exclusive inclusion, so that a process, method, article or device including a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, article or device.

[0040] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A microbubble reaction device, characterized in that: It comprises a liquid storage mechanism (1), a reaction mechanism (2), a discharge mechanism (3) and a flow guiding mechanism (4); The reaction mechanism (2) is mounted on the liquid storage mechanism (1), the discharge mechanism (3) is arranged in the liquid storage mechanism (1), and the flow guiding mechanism (4) is arranged in the liquid storage mechanism (1); The liquid storage mechanism (1) comprises a liquid storage tank (11), a support block (12) is installed on one side of the liquid storage tank (11), a heating plate (13) is installed in the support block (12), and a group of heat-conducting rods (14) extending downward are installed inside the support block (12), and one end of the heat-conducting rods (14) can contact the heating plate (13); The reaction mechanism (2) comprises a reaction barrel (21), the reaction barrel (21) being mounted on a liquid storage tank (11), a water inlet pipe (23) being mounted in the reaction barrel (21), one end of the water inlet pipe (23) extending to the outside of the reaction barrel (21), the other end of the water inlet pipe (23) being close to the bottom of the inner cavity of the reaction barrel (21), a micro-bubble generator (22) being mounted on the front side of the reaction barrel (21), the bubble outlet end of the micro-bubble generator (22) extending into the reaction barrel (21), wherein a water outlet pipe (24) is installed in the reaction barrel (21), one end of the water outlet pipe (24) extends to the bottom of the reaction barrel (21), the other end of the water outlet pipe (24) is connected to a corrugated hose (25) located in the reaction barrel (21), the bottom end of the corrugated hose (25) is connected to a water inlet head (26), the water inlet head (26) is slidably installed in the reaction barrel (21), and a float (27) is installed on the water inlet head (26); The flow guide mechanism (4) comprises a ripple box (41), the ripple box (41) being installed in the liquid storage tank (11), a flow guide plate (42) being fixedly installed on the upper part of the ripple box (41) near the port of the water outlet pipe (24), the bottom of the inner cavity of the ripple box (41) being ripple-shaped and close to the heat-conducting rod (14), one side of the inner part of the flow guide plate (42) being a plane, and the other side of the inner part of the flow guide plate (42) being an inclined surface, and a filter plate (43) being connected to the inclined surface of the flow guide plate (42).

2. A microbubble reaction device according to claim 1, characterized in that: The front and rear sides of the folding box (41) are both provided with inclined grooves (46), and a movable rod (47) that can move in the folding box (41) is slidably installed inside the inclined groove (46). Both ends of the movable rod (47) are connected to movable shafts (414) located outside the folding box (41). The central movable sleeve outside the movable rod (47) is connected to a movable sleeve (48). The bottom of the movable sleeve (48) is connected to a fixed rod (412), and the bottom of the fixed rod (412) is connected to a scraper (413) that can abut against the filter plate (43). A collecting box (44) that can be connected to the filter plate (43) is installed in the folding box (41).

3. A microbubble reaction device according to claim 2, characterized in that: An arc sleeve (49) is installed inside the movable rod (47), and an arc block (410) is installed in the movable sleeve inside the arc sleeve (49). One side of the arc block (410) is connected to an arc spring (411) located in the folding box (41), and the other end of the arc spring (411) is connected to the inner wall of the arc sleeve (49). The other side of the arc block (410) is connected to the movable sleeve (48), and a groove panel (45) is installed in the folding box (41).

4. A microbubble reaction device according to claim 3, characterized in that: The two sides of the outside of the movable rod (47) are connected to mounting blocks (415), the two sides of the movable sleeve (48) are connected to connecting blocks (418), the movable sleeve inside the connecting block (418) is provided with a clamping block (419) that can abut against the mounting block (415), the other side of the clamping block (419) is connected to a second spring (420), and the other end of the second spring (420) is connected to the inner wall of the connecting block (418).

5. A microbubble reaction device according to claim 4, characterized in that: The front and rear sides of the corrugated box (41) are connected to an extrusion rod (417), and the mounting block (415) is movably sleeved with a sleeve rod (416) that can abut against the extrusion rod (417). The abutting surfaces of the extrusion rod (417) and the sleeve rod (416) are both hemispherical.

6. A microbubble reaction device according to claim 2, characterized in that: The discharge mechanism (3) comprises a drain pipe (31), the drain pipe (31) being installed at the bottom of the inner cavity of the liquid storage tank (11) and one end of which extends to the outside of the liquid storage tank (11), a plurality of through holes (32) being provided on the outside of the drain pipe (31), an external sliding sleeve of the drain pipe (31) being provided with a sealing cover (33) capable of closing the through holes (32), a tension spring (34) being connected to one side of the sealing cover (33), the other end of the tension spring (34) being connected to the drain pipe (31), and a magnetic block 1 (312) being connected to the other side of the sealing cover (33).

7. A microbubble reaction device according to claim 6, characterized in that: A bracket (35) is installed in the liquid storage tank (11), the bottom of the bracket (35) is connected to the drain pipe (31), a slider (36) is slidably installed inside the bracket (35), one side of the slider (36) is connected to a second float (37), a lifting rod (38) is movably sleeved inside the slider (36), the bottom end of the lifting rod (38) is connected to a second magnetic block (313) capable of generating magnetic attraction for a first magnetic block (312), a spring (39) is sleeved outside the lifting rod (38), and two ends of the spring (39) are respectively connected to the lifting rod (38) and the slider (36).

8. A microbubble reaction device according to claim 7, characterized in that: The top of the second buoy (37) is connected to a connecting rod (310), and the top end of the connecting rod (310) is connected to a connecting plate (311) located outside the movable shaft (414), and the movable shaft (414) can move inside the connecting plate (311).

Images