Intelligent modularized high-concentration ammonia-nitrogen wastewater treatment device

Abstract

The invention discloses an intelligent modularized high-concentration ammonia-nitrogen wastewater treatment device, a treatment method of the device comprises the steps of pre-adjustment, air stripping, secondary air stripping and PH callback, and the device comprises an adjustment box and an air stripping box; a water inlet pipe I and a dosing pipe are arranged at the top of the adjusting box, the stirring mechanism is arranged in the adjusting box, and the heating pipes are located on the two sides of the stirring mechanism and fixedly connected with the inner wall of the adjusting box. An exhaust port and a spraying mechanism are arranged at the top of the air stripping box, a water outlet and a secondary air stripping mechanism are arranged at the bottom of the air stripping box, and a water outlet I in the bottom of the adjusting box is fixedly connected with the spraying mechanism through a pipeline; the air stripping mechanism is located between the spraying mechanism and the secondary air stripping mechanism and fixedly connected with the air stripping box. The wastewater and the alkali liquor are subjected to multi-stage stirring in different directions through the stirring mechanism, so that the wastewater and the alkali liquor are uniformly mixed and heated at the same time; and the air stripping mechanism and the secondary air stripping mechanism are controlled to sequentially carry out multi-stage treatment on the wastewater, so that nitrogen in the wastewater is quickly and efficiently stripped.

Description

Technical Field

[0001] The present invention belongs to the technical field of wastewater treatment, and in particular relates to an intelligent modular high-concentration ammonia nitrogen wastewater treatment device. Background Art

[0002] At present, industrial wastewater discharged by key industries such as chemical industry, medicine, leather making, printing and dyeing, and food monosodium glutamate usually contains high concentrations of ammonia nitrogen. In order to facilitate subsequent recycling and treatment, it is usually necessary to use a treatment device to purify the ammonia nitrogen in the wastewater, and the wastewater usually needs to be regulated before stripping to improve the effect of stripping the wastewater;

[0003] After searching, the prior art publication number is CN 114956240 A, which is an ammonia removal device and ammonia removal method for ammonia nitrogen wastewater. The device controls the wastewater in the wastewater pool to leave above the blow-off assembly through a valve, and at the same time, the blower blows air out of the rotary aeration assembly through the air blowing pipe, and inputs the blown-off ammonia gas into the acid cleaning assembly through the air blowing assembly, so that the acid liquid pool and the nozzle cooperate to neutralize the ammonia gas; since the rotary aeration assembly has no external power, the rotary aeration assembly can only be driven by the wastewater flowing down from the wastewater pool to rotate, resulting in the wastewater falling rapidly after a short contact with the rotary aeration assembly, and the gas cannot fully contact the wastewater, resulting in a large amount of ammonia nitrogen remaining in the wastewater;

[0004] After searching, a high ammonia nitrogen wastewater denitrification device is found with the prior art announcement number CN219546749U. The device sprays wastewater into the interior of a stripping tower through a spray mechanism, and the wastewater enters the bottom of the stripping tower after being filtered through a charging net, and then the wastewater at the bottom of the stripping tower is stripped through a blower; and the loading net is tilted by a motor to make the filler balls above the loading net slide out of the discharge port through the sliding net; the wastewater in the device is stripped only in the process of falling along the surface of the filler balls to the surface of the charging net, and then falling from the charging net to the bottom of the stripping tower, but the speed at which the wastewater falls in the device and rises through the blowing device is very fast, so it is impossible to achieve sufficient contact between the gas and the wastewater, resulting in the inability to quickly remove ammonia nitrogen or inadequate removal. Summary of the invention

[0005] The purpose of the present invention is to overcome the shortcomings of the prior art and provide an intelligent modular high-concentration ammonia nitrogen wastewater treatment device, which performs multi-stage stirring of wastewater and alkali solution in different directions through a stirring mechanism, so that the wastewater and the alkali solution are uniformly mixed and uniformly heated at the same time; and controls the stripping mechanism and the secondary stripping mechanism to perform multi-stage treatment on the wastewater in turn, so as to quickly and efficiently blow off the nitrogen in the wastewater.

[0006] In order to achieve the above object, the technical solution adopted by the present invention is:

[0007] An intelligent modular high-concentration ammonia nitrogen wastewater treatment device, characterized in that the specific steps of the device treatment method are as follows:

[0008] 1) Pre-regulation: Inject the ammonia nitrogen wastewater into the regulating box through the water inlet pipe I, and inject lime water into the regulating box through the dosing pipe to control the pH value of the ammonia nitrogen wastewater between 9-11, and use the stirring mechanism to perform multi-stage stirring in different directions on the ammonia nitrogen wastewater to evenly mix the wastewater and the alkali solution; at the same time, turn on the heating rod and heating tube to raise the temperature of the ammonia nitrogen wastewater to 25℃-30℃;

[0009] 2) Stripping: The pre-conditioned wastewater is pumped from the regulating box into the spray mechanism for spraying through a water pump, and at the same time, the ultrasonic generator, ultrasonic vibration plate and stripping mechanism cooperate to ultrasonically strip the ammonia nitrogen wastewater; then the ammonia nitrogen wastewater falling on the surface of the water receiving bucket is stripped again through the jet mechanism, and the regulating mechanism and the water storage mechanism cooperate to collect the ammonia nitrogen wastewater on the surface of the water receiving bucket for spraying, so that it is ultrasonically stripped again; at the same time, the ammonia gas formed after the stripping treatment enters the recovery and treatment device through the exhaust port;

[0010] 3) Secondary stripping: The ammonia nitrogen wastewater flows through the outlet at the bottom of the water receiving hopper to the secondary stripping mechanism for stripping treatment; at the same time, the water pump cooperates with the water inlet pipe II to spray the ammonia nitrogen wastewater flowing into the bottom of the stripping box onto the hollow ball filler filled between the sleeve and the stripping box, and part of the ammonia nitrogen wastewater flows along the support tube III into the spray mechanism for spraying again. At the same time, the air compressor sprays air through the air inlet pipe II to strip the wastewater on the hollow ball filler and the ammonia nitrogen wastewater sprayed by the spray mechanism again;

[0011] 4) PH adjustment: The ammonia nitrogen wastewater after stripping treatment enters the equalization tank through the drain outlet, and strong acid is added into the equalization tank to neutralize the ammonia nitrogen wastewater.

[0012] Furthermore, an intelligent modular high-concentration ammonia nitrogen wastewater treatment device comprises a regulating box and a stripping box; a water inlet pipe I and a dosing pipe are provided on the top of the regulating box, a stirring mechanism is arranged inside the regulating box, and a pair of heating pipes are located on both sides of the stirring mechanism and are fixedly connected to the inner wall of the regulating box; an exhaust port and a spray mechanism are provided on the top of the stripping box, a drain port and a secondary stripping mechanism are provided on the bottom, and a water outlet I at the bottom of the regulating box is fixedly connected to the spray mechanism through a pipeline; the stripping mechanism is located between the spray mechanism and the secondary stripping mechanism and is fixedly connected to the stripping box;

[0013] The stirring mechanism includes a support seat I, a support seat III, a support seat IV, a fixed ring, an annular plate, a connecting groove I, a spoiler mechanism I, a spoiler mechanism II, a spoiler mechanism III, and a motor I; one side of the support seat I is rotatably connected to the regulating box through a support cylinder I, and the other side is fixedly connected to the annular plate through a connecting plate I, and the support seat II is rotatably connected to the annular plate and the support seat I through a connecting cylinder I; one side of the support seat III is rotatably connected to the regulating box through a support cylinder II with a motor II fixed inside, and the other side is fixedly connected to the annular plate through a connecting plate II, and the connecting shaft at the output end of the motor II is connected to the bevel gear plate The motor I is fixedly connected to the outside of the adjustment box through the motor seat, and the gear on the motor I is meshed with a number of gear teeth fixedly connected to the outside of the support cylinder II; the support cylinder IV is rotatably connected to the annular plate and the support cylinder III through the connecting cylinder II, the top of the connecting cylinder II is meshed with the bevel gear on the gear II through a number of gear teeth, the bottom end of the connecting shaft passes through the connecting cylinder II and meshes with the bevel gear I and the bevel gear II, and the bevel gear II passes through the supporting cylinder II through the connecting shaft. The through hole on the seat IV is fixedly connected with the gear III; the said fixed ring is provided with a pair, which are symmetrically fixedly connected between the support seat II and the support seat IV, and a plurality of gear teeth are provided on the inner side of the fixed ring, and a plurality of connecting seats I are provided on the inner wall. The rotating seat I is located between the pair of fixed rings and is rotatably connected with the connecting grooves at the bottom of the support seat II and the support seat IV, the gear III is meshed with a plurality of gear teeth on the outer side of the rotating seat I, and a pair of guide shafts I are provided on one side of the connecting seat I; a plurality of connecting seats II are provided on the inner side of the said annular plate, and a pair of guide shafts II are provided on one side of the connecting seat II; the said connecting groove I is provided with a plurality of connecting plates I and connecting grooves IV, respectively. The connecting plates II are fixedly connected to the annular plate, and a pair of rotating seats II are respectively located on both sides of the connecting plate I, the connecting plate II, the annular plate and the connecting groove I and are slidably connected to the sliding grooves on the supporting seat I and the supporting seat III; a number of heating rods are fixedly connected to the annular plate and the connecting groove I, and the detector arranged on the outer wall of the regulating box performs real-time detection of the regulating state of the wastewater through the temperature sensor and the PH sensor fixedly connected to the connecting groove I; the spoiler mechanism II is connected to the connecting seat II, the spoiler mechanism III is connected to the connecting seat I, and a number of groups of spoiler mechanisms I are respectively arranged on one side of the spoiler mechanism II and the spoiler mechanism III.

[0014] The spoiler mechanism I is provided with several groups, and the spoiler mechanism I is provided with a mounting groove, a drainage groove I, a drainage groove II, a connecting rod I, and a sliding seat; the mounting groove is provided with several drainage grooves I and drainage grooves II, and the sliding seat is fixedly connected to the mounting groove through a pair of connecting rods I; the sliding seats in several groups of spoiler mechanisms I are respectively slidably connected to the guide shaft II or the guide shaft I;

[0015] The flow-disturbing mechanism II is provided with a rotating rod I, a gear IV, and a stirring paddle; the stirring paddle is rotationally connected to the connecting seat II through the rotating rod I, and one end of the rotating rod I is provided with a reciprocating thread and is threadedly connected to a group of sliding seats in the flow-disturbing mechanism I; the gear IV is located between the connecting seat II and the stirring paddle and is fixedly connected to the rotating rod I, and the gear IV is meshed with a plurality of gear teeth fixedly connected to the inner wall of the rotating seat II.

[0016] The spoiler mechanism III is provided with a connecting seat III, a connecting rod, a connecting cylinder III, a spiral blade, a limiting cylinder, a fixed seat, a limiting rod, a gear V, and a rotating rod II; the rotating rod II is rotatably connected to the connecting seat I, and one end of the rotating rod II is provided with a reciprocating thread and is threadedly connected to the sliding seat in another group of spoiler mechanisms I; the gear V is fixedly connected to the other end of the rotating rod II, the gear V is meshed with the gear teeth on the fixed ring, and a pair of connecting seats III are located between the connecting seat I and the gear V and are fixedly connected to the rotating seat I; the limiting rod is provided with a pair, and one end of the limiting rod is fixedly connected to the rotating shaft rotatably connected to the top of the connecting seat III; the connecting rod is provided with a pair, the connecting rod is slidably connected to the rotating shaft on the limiting rod, and one end of the connecting rod is rotatably connected to the sliding seat in another group of spoiler mechanisms I through the connecting seat, and the other end is fixedly connected to the connecting cylinder III through the connecting plate; the limiting cylinder is rotatably connected to the fixed seat fixedly connected to one end of the connecting cylinder III, and a spiral blade is fixedly connected to the outside of the limiting cylinder.

[0017] The spray mechanism includes a rotating box, a water outlet pipe, a motor III, and a water injection port; the rotating box is rotatably connected to the top of the blow-off box, and a plurality of water outlet pipes are provided at the bottom of the rotating box; the motor III is fixedly connected to the top of the blow-off box through a motor seat, and the gear at the output end of the motor III is meshed with a plurality of gear teeth fixedly connected to the rotating box; one end of the water injection port is rotatably connected to the top of the rotating box, and the other end is connected to the water outlet I through a pipeline provided with a water pump.

[0018] The stripping mechanism includes a water receiving hopper, an air jet mechanism, an adjusting mechanism, a water storage mechanism, an installation box, an electric motor I, and an air inlet pipe I; the water receiving hopper is fixedly connected to the stripping box, and several groups of water storage mechanisms and air jet mechanisms are respectively arranged on a pair of side walls corresponding to the water receiving hopper, and the adjusting mechanism is located on the outside of the water storage mechanism and is fixedly connected to the water receiving hopper; the two sides of the installation box are fixedly connected to the stripping box through connecting pipes II and connecting pipes III passing through the through grooves on the water receiving hopper, and several groups of air outlet pipes II fixedly connected to the installation box are fixedly connected to the air compressor through the air inlet pipe I, the ultrasonic vibration plate is located below the air outlet pipe II and is fixedly connected to the installation box, and several nozzles are arranged on the air outlet pipe II; the electric motor I is provided with a pair, and the pair of electric motors I are fixedly connected to the connecting box I symmetrically fixedly connected to the stripping box through the motor seat, and the output end of the electric motor I is fixedly connected to the sprocket through the through hole on the connecting box I.

[0019] The jet mechanism is provided with a connecting pipe I, a connecting groove III, a connecting plate III, an air outlet pipe I, a rotating cylinder, a sprocket I, an extrusion plate, a spring I, and a pressure roller; one end of the connecting pipe I is connected to the air compressor through a through hole on the blow-off box, and the other end is fixedly connected to the air outlet pipe I through a number of connecting pipes with connecting grooves III on the outside; the connecting plate III is fixedly connected to the water outlet pipe at the bottom of the connecting groove III, and one end of the extrusion plate provided with a sealing sheet is slidably linked to the extrusion plate through a sliding shaft; one end of the rotating cylinder is rotatably connected to the water receiving bucket, and the other end is rotatably connected to the connecting groove III, a number of air outlets are provided on the top of the rotating cylinder, and the bottom is fitted with a protrusion at the other end of the extrusion plate through a pressure roller, and a pair of sprockets I arranged on the outside of the rotating cylinder are connected to the sprocket on the electric motor I through a chain; the spring I is arranged between the connecting plate III and the extrusion plate along the sliding shaft on the extrusion plate.

[0020] The adjusting mechanism is provided with a sliding plate, a push block I, a guide shaft III, a spring II, a push block II, a guide rod I, a spring III, a connecting frame, and an electric push rod I; the cylinder body of the electric push rod I is fixedly connected to the water receiving bucket, the connecting frame fixedly connected to the extended end of the electric push rod I is fixedly connected to the push block II through a pair of guide rods I, and the push block I corresponding to the position of the push block II is slidably connected in the slide groove on the water receiving bucket through a sliding plate with an arc groove at one end; the spring III is arranged above the connecting frame along the guide rod I; the guide shaft III is provided with a pair, one end of the guide shaft III is slidably connected to the push block I, and the other end is fixedly connected to the water storage mechanism, and a spring II is provided on the guide shaft III.

[0021] The water storage mechanism is provided with a water storage cylinder, a connecting rod II, an electric push rod II, and a connecting rod III; the top of the water storage cylinder is fixedly connected to the water receiving bucket, and both sides of the water storage cylinder are provided with sliding grooves for the sliding plate to pass through; one end of the connecting rod III passes through the through hole at the bottom end of the water storage cylinder and is fixedly connected to the sliding plate, and the other end is fixedly connected to the extended end of the electric push rod II through the connecting plate, and the cylinder body of the electric push rod II is fixedly connected to the water receiving bucket.

[0022] The secondary blow-off mechanism includes a support tube III, a sleeve, a spray mechanism, an electric motor II, a water inlet pipe II, an air inlet pipe II, and an air pipe; the support tube III is fixedly connected to the blow-off box, and a plurality of through grooves I are provided on the top of the support tube III, and a connecting pipe at the bottom is fixedly connected to the side wall of the blow-off box; the sleeve is arranged on the outside of the support tube III, and a plurality of through grooves II are provided on the top of the sleeve, and the bottom is fixedly connected to the blow-off box through a sieve plate arranged above the connecting pipe; a plurality of nozzles are provided on the air pipe, and the air pipe is arranged below the sleeve, and one end of the air inlet pipe III passes through the through hole on the support tube III and is fixedly connected to the air pipe, and the other end passes through the connecting pipe and is connected to the air compressor; the spray mechanism is provided with a plurality of nozzles, and one end of the spray mechanism is fixedly connected to the support tube III and the sleeve, and the other end One end is fixedly connected to the blow-off box; the electric motor II is provided with a plurality of them, and the electric motor II is fixedly connected to the connection box II fixedly connected to the blow-off box through a connection seat, and the output end of the electric motor II passes through the through hole on the connection box II and is fixedly connected to the sprocket II; the water inlet pipe II is provided with a plurality of water spraying ports, and the water inlet pipe II fixedly connected to the inner wall of the blow-off box passes through the through hole on the blow-off box through a connecting pipe and is connected to the water outlet of the water pump, and the pipe on the water inlet of the water pump is located below the sieve plate and fixedly connected to the blow-off box; the air inlet pipe II is provided with a plurality of them, and the air inlet pipe II is provided with a plurality of nozzles, and the air inlet pipe II is located between the sieve plate and the water inlet pipe II and is fixedly connected to the blow-off box, and the air inlet pipe II passes through the through hole on the blow-off box through the connecting pipe IV and is connected to the air compressor.

[0023] The spray mechanism is provided with a water storage pipe, a rotating seat III, a water outlet II, a motor IV, a guide rod II, a push plate, a sealing plate, an electric push rod III, and a guide plate; one end of the water storage pipe is fixedly connected to the through groove I and the through groove II, and the other end is fixedly connected to the blow-off box, and a pair of guide plates are located on both sides of the water inlet on the water storage pipe and are fixedly connected to the support tube III and the sleeve; the rotating seat III is provided with a plurality of, and the top of the rotating seat III is provided with a plurality of water outlets II, and the bottom is rotatably connected to the connecting pipe above the water storage pipe, and a pair of sprockets on the outer wall of the rotating seat III and the sprocket II are mutually connected by a chain; the motor IV is arranged inside the support tube III, and the motor IV is fixedly connected to the water storage pipe through the motor seat, and the output end of the motor IV is rotatably connected to the water storage pipe through the guide rod II with a pair of guide grooves on the outer wall, and the push plate is located inside the water storage pipe and is slidably connected to the guide rod II; the cylinder body of the electric push rod III is fixedly connected to the support tube III, and the extended end is fixedly connected to one end of the sealing plate through the connecting plate, and the other end of the sealing plate is slidably connected to the slide groove arranged at the water inlet of the water storage pipe.

[0024] Compared with the prior art, the present invention has the following beneficial effects:

[0025] 1) Pre-conditioning, stripping, secondary stripping, and pH adjustment are modularized and refined in different processes. The treatment process is further intelligently monitored in real time through temperature sensors, pH sensors, detectors and other components to effectively treat high-concentration ammonia nitrogen wastewater;

[0026] 2) Inject wastewater into the regulating box through the water inlet pipe Ⅰ and inject alkali solution into the regulating box through the dosing pipe, and turn on the heating rod and the heating tube to heat the wastewater. Then, the motor Ⅰ cooperates with the support tube Ⅱ to control the annular plate and the connecting groove Ⅰ to rotate and stir the wastewater. At the same time, the motor Ⅱ controls the bevel gear plate and the bevel gear Ⅰ to rotate through the connecting shaft, so that the gear Ⅰ and the gear Ⅱ control the rotating seat Ⅱ to drive the flow disturbance mechanism Ⅱ and a group of flow disturbance mechanisms Ⅰ to stir the wastewater, and the connecting tube Ⅱ drives the fixed ring to rotate and stir the wastewater. At the same time, the gear Ⅲ controls the rotating seat Ⅰ to drive the flow disturbance mechanism Ⅲ and another group of flow disturbance mechanisms Ⅰ to stir the wastewater; so that the stirring mechanism disturbs the wastewater and the alkali solution and stirs the wastewater in multiple directions, accelerates the mixing speed of the alkali solution and the wastewater, makes the alkali solution fully diffuse in the wastewater, and makes the wastewater fully contact the heating rod and the heating tube to be evenly heated;

[0027] 3) The air compressor blows off the wastewater sprayed by the spray mechanism by spraying air through the air inlet pipe Ⅰ and the air outlet pipe Ⅱ in the blow-off mechanism. At the same time, the ultrasonic generator emits ultrasonic waves through the ultrasonic vibration plate to assist the air sprayed from the air outlet pipe Ⅱ to blow off the wastewater. The ultrasonic waves contact the wastewater, causing the wastewater to undergo alternating compression and expansion, thereby generating cavitation bubbles, thereby enhancing the volatilization and mass transfer effect of ammonia, making it easier to convert from liquid phase to gas phase; after the wastewater falls on the surface of the water receiving bucket, the electric motor Ⅰ in the jet mechanism controls the rotation of the rotating cylinder, and at the same time, the air compressor blows air from the air outlet on the rotating cylinder through the connecting pipe Ⅰ The waste water flowing on the surface of the water receiving bucket is blown off; at the same time, part of the waste water flows into the water storage cylinder in the water storage mechanism along the water receiving bucket, and then the electric push rod I cooperates with the connecting frame to control the guide rod I to drive the push block II to control the push block I to squeeze the spring II, so that the sliding plate slides in the slide grooves on the water receiving bucket and the water storage cylinder. After a pair of sliding plates are in contact, the arc groove on the sliding plate forms a circular through hole, and the electric push rod II is retracted, so that the sliding plate on the connecting rod III pushes the waste water in the water storage cylinder out of the circular through hole between the sliding plates, so that it is blown off again by ultrasonic waves and air;

[0028] 4) The wastewater flows to the surface of the support tube III in the secondary blow-off mechanism through the water outlet at the bottom of the water receiving hopper. At this time, the air compressor sprays air into the space between the support tube III and the sleeve through the air pipe and the air inlet pipe III, so that the air blows off the wastewater covering the surface of the support tube III; part of the wastewater flowing into the bottom of the blow-off box along the support tube III is sprayed onto the hollow ball filler filled between the sleeve and the blow-off box through the water pump and the water inlet pipe II, and the remaining wastewater enters the water storage pipe along the support tube III and the guide plate. When the wastewater in the water storage pipe accumulates to a certain amount, the electric push rod III controls the sealing plate to seal the water inlet on the water storage pipe, and the motor IV controls the The guide rod II drives the push plate to slide along the water storage pipe, and the water in the water storage pipe is sprayed out through the water outlet II on the rotating seat III, so that the waste water contacts the air sprayed out from the air inlet pipe II for removal treatment; at the same time, the electric motor II drives the rotating seat III to rotate through the sprocket II, so that the waste water sprayed out from the water outlet II is thrown out to the surroundings under the action of inertia and then falls down, so as to expand the spraying range of the waste water and prolong the time that the waste water stays in the air, so that the waste water can fully contact the air for blow-off treatment; at the same time, the air compressor sprays air through the air inlet pipe II to blow off the waste water on the hollow ball filler and the waste water sprayed by the spraying mechanism. BRIEF DESCRIPTION OF THE DRAWINGS

[0029] Attached Figure 1 It is a structural schematic diagram of the stirring mechanism in the present invention;

[0030] Attached Figure 2 It is a schematic structural diagram of the blow-off mechanism and the secondary blow-off mechanism in the present invention;

[0031] Attached Figure 3 Yes Figure 1 , Attachment Figure 2 Schematic diagram of the structure of the middle regulating box and the blow-off box;

[0032] Attached Figure 4 Yes Figure 1 Schematic diagram of the installation structure of the middle fixed ring and the annular plate;

[0033] Attached Figure 5 Yes Figure 1 Schematic diagram of the internal structure of the middle support seat III and the support seat IV;

[0034] Attached Figure 6 Yes Figure 1 Schematic diagram of the position structure of the middle rotating seat II, the spoiler mechanism I, and the spoiler mechanism II;

[0035] Attached Figure 7 Yes Figure 1 Schematic diagram of the position structure of the middle rotating seat I, the spoiler mechanism I, and the spoiler mechanism III;

[0036] Attached Figure 8 Yes Figure 1 Schematic diagram of the connection structure between the middle spoiler mechanism I and the spoiler mechanism III;

[0037] Attached Fig. 9 Yes Figure 1 Schematic diagram of the connection structure between the middle spoiler mechanism I and the spoiler mechanism II;

[0038] Attached Fig.10 Yes Figure 2 Schematic diagram of the connection structure between the middle water bucket and the jet mechanism, the regulating mechanism and the water storage mechanism;

[0039] Attached Fig.11 Yes Figure 2 Schematic diagram of the structure of the jet mechanism;

[0040] Attached Fig.12 Yes Figure 2 Schematic diagram of the position structure of the middle regulating mechanism and the water storage mechanism;

[0041] Attached Fig.13 Yes Figure 2 Schematic diagram of the internal structure of the water storage mechanism;

[0042] Attached Fig.14 Yes Figure 2 Schematic diagram of the cross-sectional structure of the secondary blow-off mechanism;

[0043] Attached Fig.15 Yes Figure 2 Schematic diagram of the connection structure of the middle support tube III, the sleeve and the spray mechanism;

[0044] Attached Fig.16 Yes Figure 5 A schematic diagram of the enlarged structure of part A;

[0045] Attached Fig.17 Yes Fig.14 A schematic diagram of the enlarged structure of part B;

[0046] In the figure: 1. regulating box; 101. water inlet pipe Ⅰ; 102. dosing pipe; 103. heating pipe; 104. water outlet Ⅰ; 2. blow-off box; 201. exhaust port; 202. drain port; 3. stirring mechanism; 301. support seat Ⅰ; 3011. support cylinder Ⅰ; 3012. connecting cylinder Ⅰ; 3013. support seat Ⅱ; 3014. connecting plate Ⅰ; 302. support seat Ⅲ; 3021. support cylinder Ⅱ; 3022. bevel gear plate; 3023. motor Ⅱ; 3024. connecting shaft; 3025. gear Ⅰ; 3026. gear Ⅱ; 3027. connecting plate Ⅱ; 303. support seat Ⅳ; 3031. connecting cylinder Ⅱ; 3032. bevel gear Ⅰ; 3033. gear Ⅲ; 3034. bevel gear Ⅱ; 304. fixed ring; 3041, rotating seat Ⅰ; 3042, connecting seat Ⅰ; 3043, guide shaft Ⅰ; 305, annular plate; 3051, connecting groove Ⅰ; 3053, rotating seat Ⅱ; 3054, connecting seat Ⅱ; 3055, guide shaft Ⅱ; 306, spoiler mechanism Ⅰ; 3061, mounting groove; 3062, drainage groove Ⅰ; 3063, drainage groove Ⅱ; 3064, connecting rod Ⅰ; 3065, sliding seat; 307, spoiler mechanism Ⅱ; 3071, rotating rod Ⅰ; 3072, gear Ⅳ; 3073, stirring paddle; 308, spoiler mechanism Ⅲ; 3081, connecting seat Ⅲ; 3082, connecting rod; 3083, connecting cylinder Ⅲ; 3084, spiral blade; 3085, limit cylinder; 3086, fixed seat; 3087, limit rod ;3088, gear V;3089, rotating rod II;309, motor I;4, spray mechanism;401, rotating box;4011, water outlet pipe;402, motor III;403, water injection port;5, blow-off mechanism;501, water receiving bucket;502, jet mechanism;5021, connecting pipe I;5022, connecting groove III;5023, connecting plate III;5024, air outlet pipe I;5025, rotating cylinder;5026, sprocket I;5027, extrusion plate;5028, spring I;5029, pressure roller;503, adjustment mechanism;5031, sliding plate;5032, push block I;5033, guide shaft III;5034, spring II;5035, push block II;5036, guide rod I;5037, spring III; 5038, connecting frame; 5039, electric push rod Ⅰ; 504, water storage mechanism; 5041, water storage cylinder; 5042, connecting rod Ⅱ; 5043, electric push rod Ⅱ; 5044, connecting rod Ⅲ; 505, installation box; 5051, connecting pipe Ⅱ; 5052, connecting pipe Ⅲ; 506, electric motor Ⅰ; 5061, connecting box Ⅰ; 507, air inlet pipe Ⅰ; 5071, air outlet pipe Ⅱ; 6, secondary blowing mechanism; 601, supporting cylinder Ⅲ; 6011, connecting pipe; 6012, through groove Ⅰ; 602, sleeve; 6021, sieve plate; 6022, through groove Ⅱ; 603, spray mechanism; 6031, water storage pipe; 6032, rotating seat Ⅲ; 6033, water outlet Ⅱ; 6034, motor Ⅳ; 6035, guide rod Ⅱ;6036, push plate; 6037, sealing plate; 6038, electric push rod III; 6039, guide plate; 604, electric motor II; 6041, connection box II; 6042, sprocket II; 605, water inlet pipe II; 6051, water pump; 606, air inlet pipe II; 6061, connection pipe IV; 607, air pipe; 6071, air inlet pipe III; 7, temperature sensor; 8, PH sensor; 9, heating rod; 10, detector; 11, ultrasonic generator; 111, ultrasonic vibration plate. ; DETAILED DESCRIPTION

[0047] To facilitate the understanding of those skilled in the art, Figure 1-17 , the technical solution of the present invention is further specifically described.

[0048] An intelligent modular high-concentration ammonia nitrogen wastewater treatment device comprises a regulating box 1 and a stripping box 2; a water inlet pipe Ⅰ101 and a dosing pipe 102 are provided on the top of the regulating box 1, a stirring mechanism 3 is arranged inside the regulating box 1, and a pair of heating pipes 103 are located on both sides of the stirring mechanism 3 and are fixedly connected to the inner wall of the regulating box 1; an exhaust port 201 and a spray mechanism 4 are provided on the top of the stripping box 2, a drain port 202 and a secondary stripping mechanism 6 are provided at the bottom, and a water outlet Ⅰ104 at the bottom of the regulating box 1 is fixedly connected to the spray mechanism 4 through a pipeline; the stripping mechanism 5 is located between the spray mechanism 4 and the secondary stripping mechanism 6 and is fixedly connected to the stripping box 2;

[0049] The stirring mechanism 3 includes a support seat I 301, a support seat III 302, a support seat IV 303, a fixing ring 304, an annular plate 305, a connecting groove I 3051, a spoiler mechanism I 306, a spoiler mechanism II 307, a spoiler mechanism III 308, and a motor I 309; one side of the support seat I 301 is rotatably connected to the regulating box 1 through a support cylinder I 3011, and the other side is fixedly connected to the annular plate 305 through a connecting plate I 3014, and the support seat II 3013 is rotatably connected to the annular plate 305 and the support seat I 301 through a connecting cylinder I 3012; one side of the support seat III 302 is rotatably connected to the regulating box 1 through a support cylinder II 3021 in which a motor II 3023 is fixed, and the other side is connected to the annular plate 3 through a connecting plate II 3027 05 is fixedly connected, the connecting shaft 3024 at the output end of the motor II 3023 is fixedly connected to the bevel gear disk 3022, and the gears I 3025 and II 3026 are respectively fixedly connected to the bevel gears meshing on the inner and outer sides of the bevel gear disk 3022 through the through holes on the support seat III 302 via the connecting shaft; the motor I 309 is fixedly connected to the outside of the adjustment box 1 via the motor seat, and the gears on the motor I 309 are meshed with a number of gear teeth fixedly connected to the outside of the support cylinder II 3021; ​​the support seat IV 303 is rotatably connected to the annular plate 305 and the support seat III 302 via the connecting cylinder II 3031, the top of the connecting cylinder II 3031 is meshed with the bevel gear on the gear II 3026 via a number of gear teeth, and the bottom end of the connecting shaft 3024 passes through the connecting cylinder II 3031 is meshed with bevel gear II 3034 through bevel gear I 3032, and bevel gear II 3034 is fixedly connected with gear III 3033 through a connecting shaft passing through a through hole on support seat IV 303; the fixed ring 304 is provided with a pair, which are symmetrically fixedly connected between support seat II 3013 and support seat IV 303, and a plurality of gear teeth are provided on the inner side of the fixed ring 304, and a plurality of connecting seats I 3042 are provided on the inner wall. The rotating seat I 3041 is located between the pair of fixed rings 304 and is rotatably connected with the connecting grooves at the bottom of support seat II 3013 and support seat IV 303, and the gear III 3033 is meshed with a plurality of gear teeth on the outer side of the rotating seat I 3041, and a pair of guide shafts I 3043 are provided on one side of the connecting seat I 3042; the annular plate 305 is provided with a plurality of gear teeth on the inner side of the fixed ring 304, and a plurality of connecting seats I 3042 are provided on the inner wall. A plurality of connecting seats II 3054, and a pair of guide shafts II 3055 are provided on one side of the connecting seat II 3054; the connecting groove I 3051 is provided with a plurality of connecting seats, which are respectively located between the connecting plate I 3014 and the connecting plate II 3027 and are fixedly connected to the annular plate 305, and a pair of rotating seats II 3053 are respectively located on both sides of the connecting plate I 3014, the connecting plate II 3027, the annular plate 305 and the connecting groove I 3051 and are slidably connected to the slide grooves on the support seat I 301 and the support seat III 302; a plurality of heating rods 9 are fixedly connected to the annular plate 305 and the connecting groove I 3051, and the detector 10 arranged on the outer wall of the regulating box 1 performs real-time detection of the regulating state of the wastewater through the temperature sensor 7 and the PH sensor 8 fixedly connected to the connecting groove I 3051;The spoiler mechanism II 307 is connected to the connection seat II 3054, the spoiler mechanism III 308 is connected to the connection seat I 3042, and a plurality of groups of spoiler mechanisms I 306 are respectively arranged on one side of the spoiler mechanism II 307 and the spoiler mechanism III 308;

[0050] Alkali solution is injected into the regulating box 1 through the dosing pipe 102, and the heating rod 9 and the heating pipe 103 are turned on to heat the wastewater. Then, the motor I 309 cooperates with the support cylinder II 3021 to control the annular plate 305 and the connecting groove I 3051 to rotate to stir the wastewater; at the same time, the motor II 3023 controls the bevel gear plate 3022 and the bevel gear I 3032 to rotate through the connecting shaft 3024, so that the gear I 3025 and the gear II 3026 control the rotating seat II 3053 to drive the spoiler mechanism II 307 and the spoiler mechanism on one side of the spoiler mechanism II 307. Ⅰ306 performs turbulent flow stirring on the wastewater, and the connecting tube Ⅱ3031 drives the fixed ring 304 to rotate to stir the wastewater, while the gear Ⅲ3033 controls the rotating seat Ⅰ3041 to drive the turbulent flow mechanism Ⅲ308 and the turbulent flow mechanism Ⅰ306 on one side of the turbulent flow mechanism Ⅲ308 to stir the wastewater; thereby, the stirring mechanism 3 performs multi-stage stirring on the wastewater and the alkali solution in different directions, speeds up the mixing speed of the alkali solution and the wastewater, makes the alkali solution fully diffuse in the wastewater, and makes the wastewater fully contact the heating rod 9 and the heating tube 103 to be evenly heated;

[0051] The spoiler mechanism I 306 is provided with several groups, and the spoiler mechanism I 306 is provided with a mounting groove 3061, a drainage groove I 3062, a drainage groove II 3063, a connecting rod I 3064, and a sliding seat 3065; the mounting groove 3061 is provided with several drainage grooves I 3062 and drainage grooves II 3063, and the sliding seat 3065 is fixedly connected to the mounting groove 3061 through a pair of connecting rods I 3064; the sliding seats 3065 in several groups of spoiler mechanisms I 306 are respectively slidably connected to the guide shaft II 3055 or the guide shaft I 3043;

[0052] The flow-disturbing mechanism II 307 is provided with a rotating rod I 3071, a gear IV 3072, and a stirring paddle 3073; the stirring paddle 3073 is rotatably connected to the connecting seat II 3054 through the rotating rod I 3071, and one end of the rotating rod I 3071 is provided with a reciprocating thread and is threadedly connected to a sliding seat 3065 in a group of flow-disturbing mechanisms I 306; the gear IV 3072 is located between the connecting seat II 3054 and the stirring paddle 3073 and is fixedly connected to the rotating rod I 3071, and the gear IV 3072 is fixedly connected to the rotating rod I 3071. 72 meshes with a number of gear teeth fixedly connected to the inner wall of the rotating seat II 3053; the rotating seat II 3053 cooperates with the gear IV 3072 to control the rotating rod I 3071 to drive the stirring paddle 3073 to stir the wastewater, and at the same time, the reciprocating thread on the rotating rod I 3071 drives the sliding seat 3065 to push and pull the installation groove 3061 reciprocatingly along the guide shaft II 3055 to disturb and stir the wastewater, and the drainage groove I 3062 and the drainage groove II 3063 assist the installation groove 3061 in disturbing the flow;

[0053] The spoiler mechanism III 308 is provided with a connecting seat III 3081, a connecting rod 3082, a connecting cylinder III 3083, a spiral blade 3084, a limiting cylinder 3085, a fixing seat 3086, a limiting rod 3087, a gear V 3088, and a rotating rod II 3089; the rotating rod II 3089 is rotatably connected to the connecting seat I 3042, and one end of the rotating rod II 3089 is provided with a reciprocating thread and is threaded with the sliding seat 3065 in another set of spoiler mechanisms I 306. The gear V3088 is fixedly connected to the other end of the rotating rod II3089, the gear V3088 is meshed with the gear teeth on the fixed ring 304, and a pair of connecting seats III3081 is located between the connecting seat I3042 and the gear V3088 and is fixedly connected to the rotating seat I3041; the limiting rod 3087 is provided with a pair, and one end of the limiting rod 3087 is fixedly connected to the rotating shaft rotatably connected to the top of the connecting seat III3081; the connecting rod 3082 is provided with A pair of connecting rods 3082 are slidably connected with the rotating shaft on the limiting rod 3087, and one end of the connecting rod 3082 is rotatably connected with the sliding seat 3065 in another set of spoiler mechanism I 306 through a connecting seat, and the other end is fixedly connected with the connecting cylinder III 3083 through a connecting plate; the limiting cylinder 3085 is rotatably connected with the fixing seat 3086 fixedly connected to one end of the connecting cylinder III 3083, and the outer side of the limiting cylinder 3085 is fixedly connected with a spiral blade 3084; the rotating The seat I 3041 drives the gear V 3088 to cooperate with the fixed ring 304, and controls the rotating rod II 3089 to drive the sliding seat 3065 to push and pull the installation groove 3061 reciprocatingly along the guide shaft I 3043 to disturb and stir the wastewater; at the same time, the connecting rod 3082 follows the sliding seat 3065 to push and pull the connecting cylinder III 3083, so that the limiting rod 3087 cooperates with the limiting cylinder 3085 to drive the spiral blade 3084 to rotate, and disturb and stir the wastewater passing through the connecting cylinder III 3083;

[0054] The spray mechanism 4 includes a rotating box 401, a water outlet pipe 4011, a motor III 402, and a water injection port 403; the rotating box 401 is rotatably connected to the top of the blow-off box 2, and a plurality of water outlet pipes 4011 are provided at the bottom of the rotating box 401; the motor III 402 is fixedly connected to the top of the blow-off box 2 through a motor seat, and the gear at the output end of the motor III 402 is meshed with a plurality of gear teeth fixedly connected to the rotating box 401; one end of the water injection port 403 is rotatably connected to the top of the rotating box 401, and the other end is connected to the water outlet I 104 through a pipeline provided with a water pump; the treated wastewater in the regulating box 1 is pumped into the rotating box 401 through the water pump, and the wastewater is sprayed into the blow-off box 2 through the water injection port 403;

[0055] The blow-off mechanism 5 comprises a water receiving bucket 501, an air jet mechanism 502, an adjusting mechanism 503, a water storage mechanism 504, an installation box 505, an electric motor I 506, and an air inlet pipe I 507; the water receiving bucket 501 is fixedly connected to the blow-off box 2, a plurality of groups of water storage mechanisms 504 and air jet mechanisms 502 are respectively arranged on a pair of side walls corresponding to the water receiving bucket 501, and the adjusting mechanism 503 is located outside the water storage mechanism 504 and fixedly connected to the water receiving bucket 501; both sides of the installation box 505 are connected by connecting pipes II 5051 , the connecting pipe III 5052 passes through the through slot on the water receiving hopper 501 and is fixedly connected to the stripping box 2, a plurality of groups of air outlet pipes II 5071 fixedly connected to the installation box 505 are fixedly connected to the air compressor through the air inlet pipe I 507, the ultrasonic vibration plate 111 is located below the air outlet pipe II 5071 and is fixedly connected to the installation box 505, and a plurality of nozzles are arranged on the air outlet pipe II 5071; the electric motor I 506 is provided with a pair, and the pair of electric motors I 506 is connected to the connection box I 5071 symmetrically fixedly connected to the stripping box 2 through the motor seat. 61 is fixedly connected, and the output end of the electric motor I506 is fixedly connected to the sprocket through the through hole on the connecting box I5061; the air compressor sprays air through the air inlet pipe I507 and the air outlet pipe II5071 to blow off the ammonia in the wastewater, and at the same time, the ultrasonic generator 11 emits ultrasonic waves through the ultrasonic vibration plate 111 to assist the air sprayed from the air outlet pipe II5071 to blow off the wastewater. The ultrasonic waves contact the wastewater, causing the wastewater to undergo alternating compression and expansion, thereby generating cavitation bubbles, thereby enhancing the volatilization and mass transfer effects of ammonia, making it easier to transfer from the liquid phase to the gas phase. into gas phase; after the wastewater falls on the surface of the water receiving bucket 501, the jet mechanism 502 sprays air to blow off the wastewater flowing on the surface of the water receiving bucket 501 again; at the same time, part of the wastewater will flow into the water storage mechanism 504 along the water receiving bucket 501, and at this time, the control and adjustment mechanism 503 assists the water storage mechanism 504 to spray out the wastewater entering the water storage mechanism 504, so that it is blown off again by ultrasonic waves and air, thereby efficiently blowing off the ammonia in the wastewater; at the same time, the blow-off gas enters the waste gas treatment device through the exhaust port 201 for treatment;

[0056] The jet mechanism 502 is provided with a connecting pipe Ⅰ5021, a connecting groove Ⅲ5022, a connecting plate Ⅲ5023, an air outlet pipe Ⅰ5024, a rotating cylinder 5025, a sprocket Ⅰ5026, an extrusion plate 5027, a spring Ⅰ5028, and a pressure roller 5029; one end of the connecting pipe Ⅰ5021 is connected to the air compressor through the through hole on the blow-off box 2, and the other end is fixedly connected to the air outlet pipe Ⅰ5024 through a plurality of connecting pipes with connecting grooves Ⅲ5022 on the outside; the connecting plate Ⅲ5023 is fixedly connected to the water outlet pipe at the bottom of the connecting groove Ⅲ5022, and one end of the extrusion plate 5027 provided with a sealing sheet is slidably linked to the extrusion plate 5027 through a sliding shaft; one end of the rotating cylinder 5025 is rotatably connected to the water receiving bucket 501, and the other end is rotatably connected to the connecting groove Ⅲ5022. The top of the rotating cylinder 5025 is provided with a plurality of air outlets, and the bottom is attached to the water receiving bucket 501 through a pressure roller 5029. The protrusion at the other end of the extrusion plate 5027 is closed, and a pair of sprockets Ⅰ5026 arranged on the outside of the rotating cylinder 5025 are connected to the sprocket on the electric motor Ⅰ506 through a chain; the spring Ⅰ5028 is arranged between the connecting plate Ⅲ5023 and the extrusion plate 5027 along the sliding axis on the extrusion plate 5027; the electric motor Ⅰ506 controls the rotation of the rotating cylinder 5025, and at the same time, the air compressor sprays air from the air outlet on the rotating cylinder 5025 through the connecting pipe Ⅰ5021 to blow off the waste water flowing on the surface of the water receiving bucket 501; at the same time, the pressure roller 5029 pushes the extrusion plate 5027 to squeeze the spring Ⅰ5028, so that the sealing sheet on the extrusion plate 5027 is separated from the water outlet pipe on the connecting groove Ⅲ5022, so as to facilitate the discharge of the waste water flowing into the connecting groove Ⅲ5022 through the air outlet on the rotating cylinder 5025, and prevent the waste water from entering the connecting pipe Ⅰ5021;

[0057] The adjusting mechanism 503 is provided with a sliding plate 5031, a push block I 5032, a guide shaft III 5033, a spring II 5034, a push block II 5035, a guide rod I 5036, a spring III 5037, a connecting frame 5038, and an electric push rod I 5039; the cylinder body of the electric push rod I 5039 is fixedly connected to the water receiving bucket 501, and the connecting frame 5038 fixedly connected to the extended end of the electric push rod I 5039 is fixedly connected to the push block II 5035 through a pair of guide rods I 5036. The push block I5032 corresponding to the position of the push block II5035 is slidably connected in the slide groove on the water receiving bucket 501 through a sliding plate 5031 with an arc groove at one end; the spring III5037 is arranged above the connecting frame 5038 along the guide rod I5036; a pair of guide shafts III5033 are provided, one end of the guide shaft III5033 is slidably connected to the push block I5032, and the other end is fixedly connected to the water storage mechanism 504, and a spring II5034 is provided on the guide shaft III5033;

[0058] The water storage mechanism 504 is provided with a water storage cylinder 5041, a connecting rod II 5042, an electric push rod II 5043, and a connecting rod III 5044; the top of the water storage cylinder 5041 is fixedly connected to the water receiving bucket 501, and both sides of the water storage cylinder 5041 are provided with slide grooves for the sliding plate 5031 to pass through; one end of the connecting rod III 5044 passes through the through hole at the bottom end of the water storage cylinder 5041 and is fixedly connected to the sliding plate, and the other end is fixedly connected to the protruding end of the electric push rod II 5043 through the connecting plate, and the cylinder body of the electric push rod II 5043 is fixedly connected to the water receiving bucket 501; the waste water flows into the water storage cylinder 5041 along the water receiving bucket 501, and then The rear electric push rod I 5039 cooperates with the connecting frame 5038 to control the guide rod I 5036 to drive the push block II 5035 to control the push block I 5032 to squeeze the spring II 5034, so that the sliding plate 5031 slides in the slide grooves on the water receiving bucket 501 and the water storage cylinder 5041. After the pair of sliding plates 5031 are in contact, so that the arc grooves on the sliding plates 5031 form a circular through hole, the electric push rod II 5043 is retracted, so that the sliding plate on the connecting rod III 5044 pushes the waste water in the water storage cylinder 5041 out of the circular through hole between the sliding plates 5031, so that it is blown off again by ultrasonic waves and air;

[0059] The secondary blow-off mechanism 6 includes a support tube III 601, a sleeve 602, a spray mechanism 603, an electric motor II 604, a water inlet pipe II 605, an air inlet pipe II 606, and an air pipe 607; the support tube III 601 is fixedly connected to the blow-off box 2, and a plurality of through grooves I 6012 are provided on the top of the support tube III 601, and a connecting pipe 6011 is fixedly connected to the side wall of the blow-off box 2 at the bottom; the sleeve 602 is arranged on the outside of the support tube III 601, and a plurality of through grooves II 6022 are provided on the top of the sleeve 602, and the bottom is fixedly connected to the blow-off box 2 through a sieve plate 6021 arranged above the connecting pipe 6011; a plurality of nozzles are provided on the air pipe 607, The air pipe 607 is arranged below the sleeve 602, and one end of the air inlet pipe III 6071 passes through the through hole on the support cylinder III 601 and is fixedly connected to the air pipe 607, and the other end passes through the connecting pipe 6011 and is connected to the air compressor; the spray mechanism 603 is provided with a plurality of spray mechanisms, and one end of the spray mechanism 603 is fixedly connected to the support cylinder III 601 and the sleeve 602, and the other end is fixedly connected to the blow-off box 2; the electric motor II 604 is provided with a plurality of electric motors, and the electric motor II 604 is fixedly connected to the connection box II 6041 fixedly connected to the blow-off box 2 through a connection seat, and the output end of the electric motor II 604 passes through the through hole on the connection box II 6041 and is fixedly connected to the sprocket II 6042 The water inlet pipe II 605 is provided with a plurality of water spraying ports, and the water inlet pipe II 605 fixedly connected to the inner wall of the stripping box 2 passes through the through hole on the stripping box 2 through the connecting pipe and is connected to the water outlet of the water pump 6051, and the pipe on the water inlet of the water pump 6051 is located below the sieve plate 6021 and is fixedly connected to the stripping box 2; the air inlet pipe II 606 is provided with a plurality of nozzles, and the air inlet pipe II 606 is located between the sieve plate 6021 and the water inlet pipe II 605 and is fixedly connected to the stripping box 2, and the air inlet pipe II 606 passes through the through hole on the stripping box 2 through the connecting pipe IV 6061 and is connected to the air compressor; the waste water is connected to the water outlet at the bottom of the water receiving bucket 501 Flows to the surface of support tube III 601, at which time the air compressor sprays air into the space between support tube III 601 and sleeve 602 through air pipe 607 and air inlet pipe III 6071, so that the air blows off the wastewater covering the surface of support tube III 601; part of the wastewater flowing into the bottom of the blow-off box 2 along support tube III 601 is sprayed onto the hollow ball filler filled between sleeve 602 and blow-off box 2 through water pump 6051 and water inlet pipe II 605, and the remaining wastewater flows into the spray mechanism 603 along support tube III 601 for spraying, and at the same time the air compressor sprays air through air inlet pipe II 606 to blow off the wastewater on the hollow ball filler and the wastewater sprayed by the spray mechanism 603;

[0060] The spray mechanism 603 is provided with a water storage pipe 6031, a rotating seat III 6032, a water outlet II 6033, a motor IV 6034, a guide rod II 6035, a push plate 6036, a sealing plate 6037, an electric push rod III 6038, and a guide plate 6039; one end of the water storage pipe 6031 is fixedly connected to the through groove I 6012 and the through groove II 6022, and the other end is fixedly connected to the blow-off box 2, and a pair of guide plates 6039 are located on both sides of the water inlet of the water storage pipe 6031 and are fixedly connected to the support tube III 601 and the sleeve 602; the rotating seat III 6032 is provided with a plurality of The top of the rotating seat III 6032 is provided with a plurality of water outlets II 6033, and the bottom is rotatably connected to the connecting pipe above the water storage pipe 6031, and a pair of sprockets on the outer wall of the rotating seat III 6032 are connected to the sprocket II 6042 through a chain; the motor IV 6034 is arranged inside the support tube III 601, and the motor IV 6034 is fixedly connected to the water storage pipe 6031 through the motor seat, and the output end of the motor IV 6034 is rotatably connected to the water storage pipe 6031 through a guide rod II 6035 with a pair of guide grooves on the outer wall, and the push plate 6036 is located inside the water storage pipe 6031 and connected to the water storage pipe 6031. The guide rod II 6035 is slidably connected; the cylinder body of the electric push rod III 6038 is fixedly connected to the support cylinder III 601, and the extended end is fixedly connected to one end of the sealing plate 6037 through the connecting plate, and the other end of the sealing plate 6037 is slidably connected to the slide groove arranged at the water inlet of the water storage pipe 6031; the waste water enters the water storage pipe 6031 along the support cylinder III 601 and the guide plate 6039. When the waste water in the water storage pipe 6031 accumulates to a certain amount, the electric push rod III 6038 controls the sealing plate 6037 to seal the water inlet on the water storage pipe 6031, and the motor IV 6034 controls the guide rod III 6038 to control the sealing plate 6037 to seal the water inlet on the water storage pipe 6031. The push plate 6036 is driven by the rod II 6035 to slide along the water storage pipe 6031, and the water in the water storage pipe 6031 is sprayed out through the water outlet II 6033 on the rotating seat III 6032, so that the waste water contacts the air sprayed out from the air inlet pipe II 606 for removal treatment; at the same time, the electric motor II 604 drives the rotating seat III 6032 to rotate through the sprocket II 6042, so that the waste water sprayed out through the water outlet II 6033 is thrown around and then falls down under the action of inertia, thereby expanding the spraying range of the waste water and prolonging the time that the waste water stays in the air, so that the waste water can fully contact the air for removal treatment.

[0061] An intelligent modular high-concentration ammonia nitrogen wastewater treatment device, the working process is as follows:

[0062] Wastewater enters the regulating box 1 through the water inlet pipe Ⅰ101, and alkali solution is injected into the regulating box 1 through the dosing pipe 102, and the heating rod 9 and the heating tube 103 are turned on to heat the wastewater; then the motor Ⅰ309 in the stirring mechanism 3 cooperates with the support cylinder Ⅱ3021 to control the annular plate 305 and the connecting groove Ⅰ3051 to rotate to stir the wastewater; at the same time, the motor Ⅱ3023 controls the bevel gear plate 3022 and the bevel gear Ⅰ3032 to rotate through the connecting shaft 3024, so that the gear Ⅰ3025 and the gear Ⅱ3026 control the rotating seat Ⅱ3053 to drive the flow disturbance mechanism Ⅱ307 and a group of flow disturbance mechanisms Ⅰ306 to stir the wastewater, and the connecting cylinder Ⅱ3031 drives the fixed ring 304 to rotate to stir the wastewater, while the gear Ⅲ3033 controls the rotating seat Ⅰ3041 to drive the flow disturbance mechanism Ⅲ308 and another group of flow disturbance mechanisms Ⅰ306 to stir the wastewater;

[0063] Subsequently, the treated wastewater in the regulating box 1 is pumped into the rotating box 401 in the spraying mechanism 4 through a water pump, and the wastewater is sprayed into the stripping box 2 through the water injection port 403; the stripping mechanism 5 and the ultrasonic generator 11 perform ultrasonic stripping on the wastewater, and at the same time, the jet mechanism 502, the regulating mechanism 503, and the water storage mechanism 504 cooperate to spray and strip the wastewater falling on the surface of the water receiving bucket 501 again; then the wastewater flows to the surface of the support cylinder III 601 in the secondary stripping mechanism 6 through the water outlet at the bottom of the water receiving bucket 501, and at this time, the air compressor sprays air between the support cylinder III 601 and the sleeve 602 through the air pipe 607 and the air inlet pipe III 6071 to the support cylinder III 601 and the sleeve 602 covering the support cylinder III 601. 601 is blown off the wastewater on the surface; part of the wastewater flowing into the bottom of the blow-off box 2 along the support tube III 601 is sprayed onto the hollow ball filler filled between the sleeve 602 and the blow-off box 2 through the water pump 6051 and the water inlet pipe II 605, and the remaining wastewater flows into the spray mechanism 603 along the support tube III 601 for spraying, and at the same time, the air compressor sprays air through the air inlet pipe II 606 to blow off the wastewater on the hollow ball filler and the wastewater sprayed by the spray mechanism 603; the gas blown off by the blow-off mechanism 5 and the secondary blow-off mechanism 6 enters the waste gas treatment device through the exhaust port 201 for treatment; finally, the wastewater that has completed the blow-off treatment enters the subsequent treatment device through the drain port 202 for treatment.

[0064] In summary, electronic or electrical components including but not limited to electric push rods, motors, electric motors, temperature sensors, PH sensors, heating rods, detectors, ultrasonic generators, ultrasonic vibration plates, etc. are components in the prior art, obtained through private customization or purchase, and the electrical connections between the components are conventional circuit connections or electrical connections in the prior art and are not within the scope of protection of the present invention.

[0065] The above contents are merely examples and explanations of the structure of the present invention. The technicians in this technical field may make various modifications or additions to the specific embodiments described or replace them in a similar manner. As long as they do not deviate from the structure of the invention or exceed the scope defined by the claims, they should all fall within the protection scope of the present invention.

Claims

1. An intelligent modular high-concentration ammonia nitrogen wastewater treatment device, characterized in that The specific steps of the device processing method are as follows: 1) Pre-regulation: Inject the ammonia nitrogen wastewater into the regulating box through the water inlet pipe I, and inject lime water into the regulating box through the dosing pipe to control the pH value of the ammonia nitrogen wastewater between 9-11, and use the stirring mechanism to perform multi-stage stirring in different directions on the ammonia nitrogen wastewater to evenly mix the wastewater and the alkali solution; at the same time, turn on the heating rod and heating tube to raise the temperature of the ammonia nitrogen wastewater to 25℃-30℃; 2) Stripping: The pre-conditioned wastewater is pumped from the regulating box into the spray mechanism for spraying through a water pump, and at the same time, the ultrasonic generator, ultrasonic vibration plate and stripping mechanism cooperate to ultrasonically strip the ammonia nitrogen wastewater; then the ammonia nitrogen wastewater falling on the surface of the water receiving bucket is stripped again through the jet mechanism, and the regulating mechanism and the water storage mechanism cooperate to collect the ammonia nitrogen wastewater on the surface of the water receiving bucket for spraying, so that it is ultrasonically stripped again; at the same time, the ammonia gas formed after the stripping treatment enters the recovery and treatment device through the exhaust port; 3) Secondary stripping: The ammonia nitrogen wastewater flows through the outlet at the bottom of the water receiving hopper to the secondary stripping mechanism for stripping treatment; at the same time, the water pump cooperates with the water inlet pipe II to spray the ammonia nitrogen wastewater flowing into the bottom of the stripping box onto the hollow ball filler filled between the sleeve and the stripping box, and part of the ammonia nitrogen wastewater flows along the support tube III into the spray mechanism for spraying again. At the same time, the air compressor sprays air through the air inlet pipe II to strip the wastewater on the hollow ball filler and the ammonia nitrogen wastewater sprayed by the spray mechanism again; 4) PH adjustment: The ammonia nitrogen wastewater after stripping enters the regulating tank through the drain outlet, and strong acid is added to the regulating tank to neutralize the ammonia nitrogen wastewater; The treatment device includes a regulating box and a blow-off box. A water inlet pipe I and a dosing pipe are provided on the top of the regulating box, a stirring mechanism is arranged inside the regulating box, and a pair of heating pipes are located on both sides of the stirring mechanism and are fixedly connected to the inner wall of the regulating box; an exhaust port and a spray mechanism are provided on the top of the blow-off box, a drain port and a secondary blow-off mechanism are provided on the bottom, and a water outlet I at the bottom of the regulating box is fixedly connected to the spray mechanism through a pipeline; the blow-off mechanism is located between the spray mechanism and the secondary blow-off mechanism and is fixedly connected to the blow-off box; The stirring mechanism includes a support seat I, a support seat III, a support seat IV, a fixed ring, an annular plate, a connecting groove I, a spoiler mechanism I, a spoiler mechanism II, a spoiler mechanism III, and a motor I; one side of the support seat I is rotatably connected to the adjustment box through a support cylinder I, and the other side is fixedly connected to the annular plate through a connecting plate I, and the support seat II is rotatably connected to the annular plate and the support seat I through a connecting cylinder I; one side of the support seat III is rotatably connected to the adjustment box through a support cylinder II in which a motor II is fixed, and the other side is fixedly connected to the annular plate through a connecting plate II, and the connecting shaft at the output end of the motor II is connected to the cone The gear plate is fixedly connected, and gears I and II are fixedly connected to the bevel gears meshing on the inner and outer sides of the bevel gear plate respectively through the through holes on the support seat III via the connecting shaft; the motor I is fixedly connected to the outside of the adjustment box via the motor seat, and the gear on the motor I meshes with a number of gear teeth fixedly connected to the outside of the support cylinder II; the support seat IV is rotatably connected to the annular plate and the support seat III via the connecting cylinder II, the top of the connecting cylinder II meshes with the bevel gear on the gear II via a number of gear teeth, the bottom end of the connecting shaft passes through the connecting cylinder II and meshes with the bevel gear II via the bevel gear I, and the bevel gear II meshes with the bevel gear II via the bevel gear I. The connecting shaft passes through the through hole on the support seat IV and is fixedly connected to the gear III; a pair of fixed rings are provided, which are symmetrically fixedly connected between the support seat II and the support seat IV, and a plurality of gear teeth are provided on the inner side of the fixed ring, and a plurality of connecting seat I are provided on the inner wall. The rotating seat I is located between the pair of fixed rings and is rotatably connected to the connecting grooves at the bottom of the support seat II and the support seat IV, and the gear III is meshed with a plurality of gear teeth on the outer side of the rotating seat I, and a pair of guide shafts I are provided on one side of the connecting seat I; a plurality of connecting seats II are provided on the inner side of the annular plate, and a pair of guide shafts II are provided on one side of the connecting seat II; the connecting groove I is provided with a plurality of , respectively located between the connecting plate Ⅰ and the connecting plate Ⅱ and fixedly connected with the annular plate, and a pair of rotating seats Ⅱ are respectively located on both sides of the connecting plate Ⅰ, the connecting plate Ⅱ, the annular plate and the connecting groove Ⅰ and are slidably connected with the slide grooves on the supporting seat Ⅰ and the supporting seat Ⅲ; a number of heating rods are fixedly connected to the annular plate and the connecting groove Ⅰ, the detector is arranged on the outer wall of the regulating box, and the temperature sensor and the PH sensor are fixedly connected to the connecting groove Ⅰ; the spoiler mechanism Ⅱ is connected to the connecting seat Ⅱ, the spoiler mechanism Ⅲ is connected to the connecting seat Ⅰ, and a number of groups of spoiler mechanisms Ⅰ are respectively arranged on one side of the spoiler mechanism Ⅱ and the spoiler mechanism Ⅲ; The stripping mechanism comprises a water receiving hopper, an air jet mechanism, an adjusting mechanism, a water storage mechanism, an installation box, an electric motor I, and an air inlet pipe I; the water receiving hopper is fixedly connected to the stripping box, and a plurality of groups of water storage mechanisms and air jet mechanisms are respectively arranged on a pair of side walls corresponding to the water receiving hopper, and the adjusting mechanism is located outside the water storage mechanism and is fixedly connected to the water receiving hopper; the two sides of the installation box are fixedly connected to the stripping box through connecting pipes II and III passing through the through grooves on the water receiving hopper, a plurality of groups of air outlet pipes II fixedly connected to the installation box are fixedly connected to the air compressor through the air inlet pipe I, an ultrasonic vibration plate is located below the air outlet pipe II and is fixedly connected to the installation box, and a plurality of nozzles are arranged on the air outlet pipe II; the electric motor I is provided with a pair, and a pair of electric motors I are fixedly connected to the connecting box I symmetrically fixedly connected to the stripping box through a motor seat, and the output end of the electric motor I is fixedly connected to the sprocket through the through hole on the connecting box I; The secondary blow-off mechanism includes a support tube III, a sleeve, a spray mechanism, an electric motor II, a water inlet pipe II, an air inlet pipe II, and an air pipe; the support tube III is fixedly connected to the blow-off box, and a plurality of through grooves I are provided on the top of the support tube III, and a connecting pipe at the bottom is fixedly connected to the side wall of the blow-off box; the sleeve is arranged on the outside of the support tube III, and a plurality of through grooves II are provided on the top of the sleeve, and the bottom is fixedly connected to the blow-off box through a sieve plate arranged above the connecting pipe; a plurality of nozzles are provided on the air pipe, and the air pipe is arranged below the sleeve, and one end of the air inlet pipe III passes through the through hole on the support tube III and is fixedly connected to the air pipe, and the other end passes through the connecting pipe and is connected to the air compressor; the spray mechanism is provided with a plurality of nozzles, and one end of the spray mechanism is fixedly connected to the support tube III and the sleeve, and the other end One end is fixedly connected to the blow-off box; the electric motor II is provided with a plurality of them, and the electric motor II is fixedly connected to the connection box II fixedly connected to the blow-off box through a connection seat, and the output end of the electric motor II passes through the through hole on the connection box II and is fixedly connected to the sprocket II; the water inlet pipe II is provided with a plurality of water spraying ports, and the water inlet pipe II fixedly connected to the inner wall of the blow-off box passes through the through hole on the blow-off box through a connecting pipe and is connected to the water outlet of the water pump, and the pipe on the water inlet of the water pump is located below the sieve plate and fixedly connected to the blow-off box; the air inlet pipe II is provided with a plurality of them, and the air inlet pipe II is provided with a plurality of nozzles, and the air inlet pipe II is located between the sieve plate and the water inlet pipe II and is fixedly connected to the blow-off box, and the air inlet pipe II passes through the through hole on the blow-off box through the connecting pipe IV and is connected to the air compressor.

2. An intelligent modular high-concentration ammonia nitrogen wastewater treatment device according to claim 1, characterized in that The spoiler mechanism I is provided with several groups, and the spoiler mechanism I is provided with a mounting groove, a drainage groove I, a drainage groove II, a connecting rod I, and a sliding seat; the mounting groove is provided with several drainage grooves I and drainage grooves II, and the sliding seat is fixedly connected to the mounting groove through a pair of connecting rods I; the sliding seats in several groups of spoiler mechanisms I are respectively slidably connected to the guide shaft II or the guide shaft I.

3. An intelligent modular high-concentration ammonia nitrogen wastewater treatment device according to claim 1, characterized in that The flow-disturbing mechanism II is provided with a rotating rod I, a gear IV, and a stirring paddle; the stirring paddle is rotationally connected to the connecting seat II through the rotating rod I, and one end of the rotating rod I is provided with a reciprocating thread and is threadedly connected to a group of sliding seats in the flow-disturbing mechanism I; the gear IV is located between the connecting seat II and the stirring paddle and is fixedly connected to the rotating rod I, and the gear IV is meshed with a plurality of gear teeth fixedly connected to the inner wall of the rotating seat II.

4. The intelligent modular high-concentration ammonia nitrogen wastewater treatment device according to claim 1 is characterized in that The spoiler mechanism III is provided with a connecting seat III, a connecting rod, a connecting cylinder III, a spiral blade, a limiting cylinder, a fixed seat, a limiting rod, a gear V, and a rotating rod II; the rotating rod II is rotatably connected to the connecting seat I, and one end of the rotating rod II is provided with a reciprocating thread and is threadedly connected to the sliding seat in another group of spoiler mechanisms I; the gear V is fixedly connected to the other end of the rotating rod II, the gear V is meshed with the gear teeth on the fixed ring, and a pair of connecting seats III are located between the connecting seat I and the gear V and are fixedly connected to the rotating seat I; the limiting rod is provided with a pair, and one end of the limiting rod is fixedly connected to the rotating shaft rotatably connected to the top of the connecting seat III; the connecting rod is provided with a pair, the connecting rod is slidably connected to the rotating shaft on the limiting rod, and one end of the connecting rod is rotatably connected to the sliding seat in another group of spoiler mechanisms I through the connecting seat, and the other end is fixedly connected to the connecting cylinder III through the connecting plate; the limiting cylinder is rotatably connected to the fixed seat fixedly connected to one end of the connecting cylinder III, and a spiral blade is fixedly connected to the outside of the limiting cylinder.

5. The intelligent modular high-concentration ammonia nitrogen wastewater treatment device according to claim 1 is characterized in that The jet mechanism is provided with a connecting pipe I, a connecting groove III, a connecting plate III, an air outlet pipe I, a rotating cylinder, a sprocket I, an extrusion plate, a spring I, and a pressure roller; one end of the connecting pipe I is connected to the air compressor through a through hole on the blow-off box, and the other end is fixedly connected to the air outlet pipe I through a number of connecting pipes with connecting grooves III on the outside; the connecting plate III is fixedly connected to the water outlet pipe at the bottom of the connecting groove III, and one end of the extrusion plate provided with a sealing sheet is slidably linked to the extrusion plate through a sliding shaft; one end of the rotating cylinder is rotatably connected to the water receiving bucket, and the other end is rotatably connected to the connecting groove III, a number of air outlets are provided on the top of the rotating cylinder, and the bottom is fitted with a protrusion at the other end of the extrusion plate through a pressure roller, and a pair of sprockets I arranged on the outside of the rotating cylinder are connected to the sprocket on the electric motor I through a chain; the spring I is arranged between the connecting plate III and the extrusion plate along the sliding shaft on the extrusion plate.

6. The intelligent modular high-concentration ammonia nitrogen wastewater treatment device according to claim 1 is characterized in that The adjusting mechanism is provided with a sliding plate, a push block I, a guide shaft III, a spring II, a push block II, a guide rod I, a spring III, a connecting frame, and an electric push rod I; the cylinder body of the electric push rod I is fixedly connected to the water receiving bucket, the connecting frame fixedly connected to the extended end of the electric push rod I is fixedly connected to the push block II through a pair of guide rods I, and the push block I corresponding to the position of the push block II is slidably connected in the slide groove on the water receiving bucket through a sliding plate with an arc groove at one end; the spring III is arranged above the connecting frame along the guide rod I; the guide shaft III is provided with a pair, one end of the guide shaft III is slidably connected to the push block I, and the other end is fixedly connected to the water storage mechanism, and a spring II is provided on the guide shaft III.

7. The intelligent modular high-concentration ammonia nitrogen wastewater treatment device according to claim 1 is characterized in that The water storage mechanism is provided with a water storage cylinder, a connecting rod II, an electric push rod II, and a connecting rod III; the top of the water storage cylinder is fixedly connected to the water receiving bucket, and both sides of the water storage cylinder are provided with sliding grooves for the sliding plate to pass through; one end of the connecting rod III passes through the through hole at the bottom end of the water storage cylinder and is fixedly connected to the sliding plate, and the other end is fixedly connected to the extended end of the electric push rod II through the connecting plate, and the cylinder body of the electric push rod II is fixedly connected to the water receiving bucket.

8. The intelligent modular high-concentration ammonia nitrogen wastewater treatment device according to claim 1 is characterized in that The spray mechanism is provided with a water storage pipe, a rotating seat III, a water outlet II, a motor IV, a guide rod II, a push plate, a sealing plate, an electric push rod III, and a guide plate; one end of the water storage pipe is fixedly connected to the through groove I and the through groove II, and the other end is fixedly connected to the blow-off box, and a pair of guide plates are located on both sides of the water inlet on the water storage pipe and are fixedly connected to the support tube III and the sleeve; the rotating seat III is provided with a plurality of, and the top of the rotating seat III is provided with a plurality of water outlets II, and the bottom is rotatably connected to the connecting pipe above the water storage pipe, and a pair of sprockets on the outer wall of the rotating seat III and the sprocket II are mutually connected by a chain; the motor IV is arranged inside the support tube III, and the motor IV is fixedly connected to the water storage pipe through the motor seat, and the output end of the motor IV is rotatably connected to the water storage pipe through the guide rod II with a pair of guide grooves on the outer wall, and the push plate is located inside the water storage pipe and is slidably connected to the guide rod II; the cylinder body of the electric push rod III is fixedly connected to the support tube III, and the extended end is fixedly connected to one end of the sealing plate through the connecting plate, and the other end of the sealing plate is slidably connected to the slide groove arranged at the water inlet of the water storage pipe.

9. The intelligent modular high-concentration ammonia nitrogen wastewater treatment device according to claim 1 is characterized in that The spray mechanism includes a rotating box, a water outlet pipe, a motor III, and a water injection port; the rotating box is rotatably connected to the top of the blow-off box, and a plurality of water outlet pipes are provided at the bottom of the rotating box; the motor III is fixedly connected to the top of the blow-off box through a motor seat, and the gear at the output end of the motor III is meshed with a plurality of gear teeth fixedly connected to the rotating box; one end of the water injection port is rotatably connected to the top of the rotating box, and the other end is connected to the water outlet I through a pipeline provided with a water pump.

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