A textile factory wastewater treatment device

Abstract

The present invention relates to the field of wastewater treatment technology, and specifically to a textile factory wastewater treatment device, comprising: a base; a magnetic adsorption mechanism, wherein the magnetic adsorption mechanism comprises a magnetic shielding box and an adsorption assembly, wherein the interior of the magnetic shielding box is sequentially provided with a liquid injection assembly, a liquid collection assembly, and a first electromagnetic block from top to bottom, and the liquid collection assembly is surrounded by a plurality of magnetic attachment assemblies in a rectangular array. By means of the liquid injection assembly, the liquid collection assembly, the first electromagnetic block, and the magnetic attachment assembly provided in the magnetic shielding box of the magnetic adsorption mechanism, impurities entering the sewage in the adsorption assembly are magnetically treated so that the impurities have positive or negative magnetism, wherein the liquid injection assembly is used to divert the sewage so that the sewage is in full contact with each position of the liquid collection assembly, and the magnetic attachment assembly in the liquid collection assembly directionally guides the magnetic field emitted by the first electromagnetic block, thereby making the impurities temporarily magnetic, which is conducive to the subsequent adsorption of impurities by particles with opposite magnetism.

Description

Technical Field

[0001] The present invention relates to the technical field of wastewater treatment, in particular to a wastewater treatment device for a textile factory. Background Art

[0002] The wastewater treatment plant of a textile factory is a set of facilities for comprehensive treatment of textile wastewater, which is usually composed of a pretreatment part, a physicochemical treatment part and a biochemical treatment part. The pretreatment part includes a screen and a regulating tank. The screen is used to intercept large particles of debris, and the regulating tank is used to balance the water quality and water quantity; the physicochemical treatment part adds reagents to make the suspended particles condense and precipitate so that the particles float on the water surface to achieve solid-liquid separation; the biochemical treatment part often adopts an activated sludge treatment tank, using microorganisms to decompose organic matter in the wastewater, so that the wastewater meets the discharge standard or reuse standard.

[0003] Among them, the existing equipment uses coagulants, flocculants and other agents in the physicochemical treatment part. The residual agents and substances produced by this treatment method combined with pollutants will cause secondary pollution if directly discharged into natural water bodies. For example, some chemical agents may contain heavy metals or difficult-to-degrade organic components, which will make it impossible to meet emission standards. Therefore, additional treatment processes and costs are required to remove residual agents to meet emission standards. Summary of the Invention

[0004] In view of the above-mentioned shortcomings of the prior art, the present invention provides a textile factory wastewater treatment device, which can effectively solve the problem that the chemicals used in the prior art to treat impurities in wastewater cannot meet the discharge standards.

[0005] To achieve the above objectives, the present invention is implemented through the following technical solutions:

[0006] The present invention provides a textile factory wastewater treatment device, comprising:

[0007] base;

[0008] A magnetic adsorption mechanism includes a magnetic shield box and an adsorption component disposed above the base. The interior of the magnetic shield box is sequentially provided with a liquid injection component, a liquid collection component, and a first electromagnetic block from top to bottom. A plurality of magnetic attachment components are provided in a rectangular array around the liquid collection component. Two stirring components and a chaotic magnetic device for generating a chaotic magnetic field are provided inside the adsorption component.

[0009] A separation mechanism, the separation mechanism comprising a screening box fixedly connected between the upper end surface of the base and the adsorption assembly, wherein a screening assembly for separating liquid and particles is provided inside the screening box;

[0010] a particle handling mechanism for delivering particles to the adsorption assembly and recovering particles in the screening box;

[0011] The liquid collection assembly includes a conical box fixedly connected to the inside of the magnetic shielding box, a connecting pipe fixedly connected to the narrow end of the conical box, and a magnetic attachment area formed by the conical box in the lower half of the magnetic shielding box. The magnetic attachment area is fixedly connected to a first electromagnetic block on all sides, and the first electromagnetic block is electrically connected to the controller;

[0012] The magnetic attachment component includes a magnetic hollow ball fixedly connected to the inner wall of the conical box, the open end of the magnetic hollow ball is fixedly connected to a magnetic collecting cover, and the other side of the magnetic collecting cover passes through the conical box and corresponds to the first electromagnetic block, the inner wall of the magnetic collecting cover and close to the direction of the magnetic hollow ball are fixedly connected to a plurality of magnetic collecting rings with decreasing widths in a linear array, the inner spherical surface of the magnetic hollow ball is fixedly connected to a magnetic column, and the column body of the magnetic column is evenly provided with a plurality of grooves;

[0013] The adsorption assembly includes an adsorption box fixedly connected to the upper end surface of the screening box, the upper end surface of the adsorption box is fixedly connected to the magnetic screen box, and the end of the connecting pipe away from the conical box is connected to the screening box, both sides of the upper end surface of the adsorption box in the length direction are fixedly connected with a particle spraying pipe, the output end of the particle spraying pipe is fixedly connected with a three-way pipe, the three-way pipe has two output ends and one input end, the two output ends of the three-way pipe are respectively connected with two particle spraying pipes, the bottom of the adsorption box is fixedly connected with an electric drain valve, and the electric drain valve is electrically connected to the controller, the bottom of the screening box is connected with a drain pipe, and the drain pipe is connected to the next process equipment;

[0014] The magnetic device is located between the two stirring assemblies and is electrically connected to the controller. The stirring assembly includes a rotating rod rotatably connected to the inner wall of the adsorption box, two groups of stirring rings are fixedly connected to the annular array at both ends of the rotating rod, and a group of particle rebound structures are provided in an annular array at both ends of the rotating rod, and the particle rebound structure is located in any two adjacent stirring circles. The particle rebound structure includes a fixed seat fixedly connected to the rotating rod body, an elastic block is fixedly connected to the upper end surface of the fixed seat, and a capture cover is fixedly connected to the opposite sides of the elastic block;

[0015] The rotating rod is located between two groups of stirring rings and is provided with a plurality of liquid drainage structures in an annular array. The liquid drainage structure includes a fixed plate fixedly connected to the rotating rod body, the upper end face of the fixed plate is fixedly connected to a hollow fixed frame, the internal linear array of the hollow fixed frame is fixedly connected to a plurality of flexible multi-groove blocks, and the side of the adsorption box is fixedly connected to a driver that drives the two stirring components to rotate synchronously, and the driver is electrically connected to the controller.

[0016] Preferably, a controller is installed on the side of the base;

[0017] A pair of discharge ports are provided on both sides of the screening box in the width direction, and the screening assembly includes a curved top plate fixedly connected to the upper position of the inner wall of the screening box, and inclined plates are fixedly connected on both sides in the length direction of the curved top plate, and a plurality of screening holes are provided in a rectangular array on the plate surface of the inclined plate, and a holding box is fixedly connected to the side of the inclined plate away from the curved top plate, and the holding box corresponds to and is connected to the discharge port position, and the screening box is slidably connected to an electric slider near the inner wall of the holding box, and the electric slider is electrically connected to the controller, and a push block is slidably connected to the inside of the holding box, and the push block is fixedly connected to the electric slider.

[0018] Preferably, the magnetic shield box is arranged on the upper end surface of the adsorption assembly, and the liquid injection assembly includes four liquid spraying pipes fixedly connected to the upper position of the top of the inner wall around the magnetic shield box. The inner top of the magnetic shield box is fixedly connected to a diverter, and the diverter has at least four output ends and one input end. The output end of the diverter is connected to the liquid spraying pipe through a pipeline, and the input end of the diverter is connected to a delivery pipe. The other end of the delivery pipe passes through the magnetic shield box and is connected to the previous process equipment.

[0019] Preferably, the particle processing mechanism includes a degradation conveying component, two thermal degradation components, a cold heat exchanger and a particle box;

[0020] The degradation conveying assembly includes an infusion box fixedly connected to the side of the screening box, and the output end of the infusion box is provided with a two-position three-way valve. The two-position three-way valve has two output ends and one input end. The input end of the two-position three-way valve is connected to the output end of the infusion box, and the output end of the two-position three-way valve is fixedly connected to a transmission pipe.

[0021] Preferably, the thermal degradation component includes a thermal degrader fixedly connected to the side of the screening box, the thermal degrader consists of a heating system, a reaction chamber, two feed ends, a liquid inlet end, a discharge end and a gas exhaust system, and the heating system is electrically connected to the controller, the two feed ends of the thermal degrader are fixedly connected to an interconnecting pipe, the other end of the interconnecting pipe is connected to the discharge port, the liquid inlet end of the thermal degrader is fixedly connected to a one-way liquid sprayer, the input end of the one-way liquid sprayer is connected to the other end of the transmission pipe, the discharge end of the thermal degrader is fixedly connected to a suction device, and the input end of the suction device is fixedly connected to a suction pipe.

[0022] Preferably, a centrifugal pump is fixedly connected to the bottom of the base, and the input end of the centrifugal pump is fixedly connected to a T-tube, the input end of the T-tube is connected to the other end of the suction pipe, the output end of the T-tube is connected to the input end of the centrifugal pump, and the output end of the centrifugal pump is connected to the input end of the heat exchanger through a pipeline, the heat exchanger is fixedly connected to the side of the screening box, and the side of the screening box is fixedly connected to a pump body, the input end of the pump body is connected to the output end of the heat exchanger through a pipeline, and the output end of the pump body is connected to the input end of the particle box through a pipeline, the particle box is composed of a storage box and a suction pump, and particles are stored in the storage box, a second electromagnetic block is fixedly connected to the side of the particle box, the second electromagnetic block is electrically connected to the controller, the output end of the particle box is fixedly connected to a particle conveying pipe, and the other end of the particle conveying pipe is connected to the input end of the tee pipe.

[0023] Compared with the prior art, the technical solution provided by the present invention has the following beneficial effects:

[0024] 1. Through the liquid injection component, liquid collection component, first electromagnetic block and magnetic attachment component arranged in the magnetic shield box of the magnetic adsorption mechanism, the impurities entering the sewage in the adsorption component are magnetically treated, so that the impurities have positive or negative magnetism. Among them, the liquid injection component is used to divert the sewage so that the sewage is in full contact with each position of the liquid collection component, and the magnetic attachment component in the liquid collection component can directionally guide the magnetic field emitted by the first electromagnetic block and guide it into the impurities, making the impurities temporarily magnetic, which is conducive to the subsequent adsorption of impurities by particles with opposite magnetism.

[0025] 2. Through the adsorption component, stirring component and random magnetizer in the magnetic adsorption mechanism, the transmission of magnetic particles (magnetic particles have magnetism opposite to that of impurities) is realized, and the full mixing of magnetic particles and sewage (impurities in the sewage have magnetism) is achieved. Among them, the adsorption component sprays the magnetic particles stored in the particle treatment mechanism into the sewage from different positions, and the stirring component fully stirs the sewage and the magnetic particles. The random magnetizer provides tiny random magnetism when the stirring component stirs, which is conducive to the magnetic particles capturing impurities in the sewage. The magnetic particles are sprayed into the sewage from different positions through the adsorption component, and the stirring component is fully stirred to fully mix the magnetic particles and the sewage. The random magnetizer provides tiny random magnetism when stirring, which enhances the effect of the magnetic particles capturing impurities with opposite magnetism in the sewage.

[0026] 3. The separation of sewage and magnetic particles (at this time, the magnetic particles have captured impurities) is achieved through the screening components and particle processing mechanism in the separation mechanism. The impurities captured in the magnetic particles used by the particle processing mechanism are removed by thermal degradation, and the magnetic particles are re-magnetized, so that the magnetic particles are restored to their pre-use state. This can effectively separate the purified sewage and recycle the magnetic particles, avoiding the cost of frequent purchase of new particles and reducing resource waste. BRIEF DESCRIPTION OF THE DRAWINGS

[0027] To more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the following briefly introduces the drawings required for use in the embodiments or the description of the prior art. Obviously, the drawings described below are only some embodiments of the present invention. Those skilled in the art can also derive other drawings based on these drawings without inventive effort.

[0028] Figure 1 It is a schematic structural diagram of the present invention as a whole;

[0029] Figure 2 It is a schematic structural diagram of the overall side of the present invention;

[0030] Figure 3 It is a structural schematic diagram of the magnetic adsorption mechanism of the present invention;

[0031] Figure 4 This is a schematic diagram of the internal structure of the magnetic adsorption mechanism of the present invention;

[0032] Figure 5 This is a schematic structural diagram of the magnetic assembly of the present invention;

[0033] Figure 6 It is a structural schematic diagram of the adsorption component of the present invention;

[0034] Figure 7 This is a schematic structural diagram of the side surface of the adsorption component of the present invention;

[0035] Figure 8 This is a schematic diagram of the internal structure of the adsorption component of the present invention;

[0036] Figure 9 It is a structural schematic diagram of the stirring assembly of the present invention;

[0037] Figure 10 This is a schematic structural diagram of the particle rebound structure of the present invention;

[0038] Figure 11 Schematic diagram of the structure of the liquid drainage structure of the present invention;

[0039] Figure 12 It is a structural schematic diagram of the separation mechanism of the present invention;

[0040] Figure 13 It is a schematic diagram of the internal structure of the separation mechanism of the present invention;

[0041] Figure 14 It is a structural schematic diagram of one side of the particle processing mechanism of the present invention;

[0042] Figure 15 It is a structural schematic diagram of the other side of the particle processing mechanism of the present invention;

[0043] 1. Base; 2. Magnetic adsorption mechanism; 21. Magnetic shield box; 22. Liquid injection assembly; 221. Delivery pipe; 222. Diverter; 223. Liquid spraying pipe; 23. Liquid collection assembly; 231. Conical box; 232. Connecting pipe; 24. Magnetic assembly; 241. Magnetic hollow ball; 242. Magnetic collecting cover; 243. Magnetic collecting ring; 244. Magnetic column; 25. Adsorption assembly; 251. Adsorption box; 252. Particle spraying pipe; 2521. T-piece; 253. Electric drain valve; 26. Stirring assembly; 261. Rotating rod; 262. Stirring ring; 263. Particle rebound structure; 2631. Fixed seat; 2632. Elastic block; 2633. Capture cover; 264. Liquid drainage structure; 2641. Fixed plate; 2642. Hollow Fixed frame; 2643, flexible multi-slot block; 27, driver; 28, random magnet; 29, first electromagnetic block; 3, separation mechanism; 31, screening box; 311, discharge port; 32, screening component; 321, curved top plate; 322, tilting plate; 323, screening hole; 33, holding box; 34, electric slider; 35, push block; 4, particle processing mechanism; 41, degradation conveying component; 411, infusion box; 412, two-position three-way valve; 413, transmission pipe; 42, thermal degradation component; 421, thermal degrader; 422, interconnecting pipe; 423, one-way sprayer; 424, suction device; 425, suction pipe; 43, centrifugal pump; 44, heat exchanger; 45, pump body; 46, particle box; 461, particle conveying pipe; 462, second electromagnetic block. DETAILED DESCRIPTION

[0044] To make the purpose, technical solutions, and advantages of the embodiments of the present invention more clear, the technical solutions in the embodiments of the present invention will be clearly and completely described below in conjunction with the accompanying drawings 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 making any creative efforts shall fall within the scope of protection of the present invention.

[0045] The present invention will be further described below with reference to the embodiments.

[0046] Example: Refer to Figures 1 to 15, a textile factory wastewater treatment device, comprising:

[0047] Base 1;

[0048] The magnetic adsorption mechanism 2 includes a magnetic shield box 21 and an adsorption assembly 25 arranged above the base 1. The interior of the magnetic shield box 21 is sequentially provided with a liquid injection assembly 22, a liquid collection assembly 23 and a first electromagnetic block 29 from top to bottom. The liquid collection assembly 23 is surrounded by a plurality of magnetic attachment assemblies 24 in a rectangular array. The interior of the adsorption assembly 25 is provided with two stirring assemblies 26 and a chaotic magnetic device 28 for generating a chaotic magnetic field.

[0049] The separation mechanism 3 includes a screening box 31 fixedly connected between the upper end surface of the base 1 and the adsorption assembly 25. The screening box 31 is provided with a screening assembly 32 for separating liquid and particles;

[0050] The particle processing mechanism 4 is used to transport particles to the adsorption component 25 and recover particles in the screening box 31 .

[0051] The liquid injection component 22 in the magnetic shield box 21 in the magnetic adsorption mechanism 2 can be used to make the sewage contact with the liquid collection component 23 in all directions, and the magnetic field generated by the first electromagnetic block 29 is used to collect and directionally conduct magnetic waves through the magnetic attachment component 24, thereby magnetizing the impurities in the sewage that are in contact with the liquid collection component 23 in all directions, so that the impurities in the sewage have a certain magnetism. When the magnetic sewage impurities enter the adsorption component 25, the stirring component 26 in the adsorption component 25 can stir the magnetic sewage impurities and add particles with opposite magnetism to the magnetic sewage impurities, so that the particles can capture the impurities in the sewage. When the stirring component 26 stirs, it provides tiny random magnetism, which is conducive to the effect of magnetic particles capturing impurities in the sewage. The separation mechanism 3 can use the screening component 32 to separate the sewage and the attached impurity particles. The particle processing mechanism 4 can achieve thermal degradation of the attached device particles and re-magnetize them for reuse.

[0052] Reference Figures 12 to 13 , a controller is installed on the side of the base 1;

[0053] A pair of discharge ports 311 are provided on both sides of the screening box 31 in the width direction. The screening assembly 32 includes a curved top plate 321 fixedly connected to the upper inner wall of the screening box 31. Inclined plates 322 are fixedly connected on both sides in the length direction of the curved top plate 321. A plurality of screening holes 323 are provided in a rectangular array on the plate surface of the inclined plate 322. A holding box 33 is fixedly connected to the side of the inclined plate 322 away from the curved top plate 321. The holding box 33 corresponds to and is connected to the discharge port 311. An electric slider 34 is slidably connected to the inner wall of the screening box 31 near the holding box 33, and the electric slider 34 is electrically connected to the controller. A push block 35 is slidably connected to the inside of the holding box 33, and the push block 35 is fixedly connected to the electric slider 34.

[0054] The curved top plate 321 in the screening box 31 can be used to disperse the sewage and attached impurity particles processed by the magnetic adsorption mechanism 2 to the inclined plates 322 on both sides, and the screening holes 323 in the inclined plates 322 are used to separate the sewage and the particles. The sewage enters the bottom of the screening box 31, and the particles enter the holding box 33. The electric slider 34 drives the push block 35 to move back and forth in the holding box 33, so that the particles are discharged from the discharge port 311 into the particle processing mechanism 4.

[0055] Reference Figure 2 ,to Figure 4 The magnetic shield box 21 is arranged on the upper end surface of the adsorption component 25. The liquid injection component 22 includes four liquid spraying pipes 223 fixedly connected to the upper position of the top of the inner wall around the magnetic shield box 21. The inner top of the magnetic shield box 21 is fixedly connected with a diverter 222. The diverter 222 has at least four output ends and one input end. The output end of the diverter 222 is connected to the liquid spraying pipe 223 through a pipeline. The input end of the diverter 222 is connected to the delivery pipe 221. The other end of the delivery pipe 221 passes through the magnetic shield box 21 and is connected to the previous process equipment.

[0056] The diverter 222 in the liquid injection component 22 can be used to transport the sewage transported by the delivery pipe 221 to the four liquid spraying pipes 223 respectively, and the liquid spraying pipes 223 can achieve contact between the sewage and the liquid collection component 23 in all directions.

[0057] Reference Figures 3 to 5 The liquid collection assembly 23 includes a conical box 231 fixedly connected to the inside of the magnetic shield box 21. The narrow end of the conical box 231 is fixedly connected to a connecting pipe 232. The conical box 231 forms a magnetic attachment area in the lower half of the magnetic shield box 21. The first electromagnetic block 29 is fixedly connected to the four sides of the magnetic attachment area. The first electromagnetic block 29 is electrically connected to the controller.

[0058] The attached magnetic component 24 includes a magnetic hollow ball 241 fixedly connected to the inner wall of the conical box 231. The open end of the magnetic hollow ball 241 is fixedly connected to a magnetic collecting cover 242, and the other side of the magnetic collecting cover 242 passes through the conical box 231 and corresponds to the first electromagnetic block 29. The inner wall of the magnetic collecting cover 242 and a linear array close to the direction of the magnetic hollow ball 241 are fixedly connected with multiple magnetic collecting circles 243 with decreasing widths. The inner spherical surface of the magnetic hollow ball 241 is fixedly connected with a magnetic column 244, and the column body of the magnetic column 244 is evenly provided with multiple grooves.

[0059] The liquid spraying pipe 223 can be used to make the sewage contact with the inner wall of the conical box 231 in all directions, and the magnetic field generated by the first electromagnetic block 29 can be collected through the magnetic collecting cover 242 in the magnetic component 24 on the inner wall of the conical box 231 in all directions. It is transmitted to the magnetic hollow ball 241 through the magnetic collecting ring 243 and the magnetic column 244, and the magnetic hollow ball 241 will directionally transmit the concentrated magnetic field to the sewage passing through the conical box 231, so that the sewage can magnetize the impurities.

[0060] Reference Figures 6 and 7 The adsorption assembly 25 includes an adsorption box 251 fixedly connected to the upper end surface of the screening box 31. The upper end surface of the adsorption box 251 is fixedly connected to the magnetic screen box 21, and the connecting pipe 232 is connected to the screening box 31 at one end away from the conical box 231. Both sides of the upper end surface of the adsorption box 251 in the length direction are fixedly connected with the particle spraying pipe 252. The output end of the particle spraying pipe 252 is fixedly connected with a three-way pipe 2521. The three-way pipe 2521 has two output ends and one input end. The two output ends of the three-way pipe 2521 are respectively connected with the two particle spraying pipes 252. The bottom of the adsorption box 251 is fixedly connected with an electric drain valve 253, and the electric drain valve 253 is electrically connected to the controller. The bottom of the screening box 31 is connected with a drain pipe, and the drain pipe is connected to the next process equipment.

[0061] The magnetized sewage impurities in the magnetic shield box 21 are transferred to the adsorption box 251 of the adsorption component 25 by the connecting pipe 232, and the particle spraying pipe 252 in the adsorption component 25 can transfer the magnetic particles transferred by the particle processing mechanism 4 to the adsorption box 251, and release the adsorbed particles into the screening box 31 through the electric drain valve 253.

[0062] Reference Figures 8 to 11, the magnetic device 28 is located between the two stirring components 26, and the magnetic device 28 is electrically connected to the controller. The stirring component 26 includes a rotating rod 261 rotatably connected to the inner wall of the adsorption box 251, and two groups of stirring rings 262 are fixedly connected to the annular array at both ends of the rotating rod 261. A group of particle rebound structures 263 are provided in an annular array at both ends of the rotating rod 261, and the particle rebound structure 263 is located in any two adjacent stirring circles 262. The particle rebound structure 263 includes a fixed seat 2631 fixedly connected to the shaft of the rotating rod 261, and the upper end surface of the fixed seat 2631 is fixedly connected to an elastic block 2632, and the opposite sides of the elastic block 2632 are fixedly connected to a capture cover 2633;

[0063] The rotating rod 261 is located between two groups of stirring rings 262, and the annular array of the rod body is provided with multiple liquid drainage structures 264. The liquid drainage structure 264 includes a fixed plate 2641 fixedly connected to the rod body of the rotating rod 261. The upper end surface of the fixed plate 2641 is fixedly connected to a hollow fixed frame 2642. The internal linear array of the hollow fixed frame 2642 is fixedly connected to multiple flexible multi-groove blocks 2643. The side of the adsorption box 251 is fixedly connected to a driver 27 that drives the two stirring components 26 to rotate synchronously, and the driver 27 is electrically connected to the controller.

[0064] The stirring ring 262 in the stirring assembly 26 can be used to stir and mix the sewage and particles, while the particle rebound structure 263 can prevent the particles from being too concentrated in a certain position, and the liquid drainage structure 264 can prevent the sewage from fluctuating significantly during the stirring process of the stirring ring 262.

[0065] Reference Figures 14 and 15 , the particle processing mechanism 4 includes a degradation conveying component 41, two thermal degradation components 42, a cold heat exchanger 44 and a particle box 46;

[0066] The degradation conveying component 41 includes an infusion box 411 fixedly connected to the side of the screening box 31. The output end of the infusion box 411 is provided with a two-position three-way valve 412. The two-position three-way valve 412 has two output ends and one input end. The input end of the two-position three-way valve 412 is connected to the output end of the infusion box 411, and the output end of the two-position three-way valve 412 is fixedly connected to a transmission pipe 413.

[0067] The degradation agent stored in the infusion box 411 of the degradation delivery component 41 can be transferred to the thermal degradation component 42 through the transfer tube 413, thereby facilitating the thermal degradation of impurities attached to the particles by the thermal degradation component 42.

[0068] Reference Figures 14 and 15The thermal degradation component 42 includes a thermal degrader 421 fixedly connected to the side of the screening box 31. The thermal degrader 421 is composed of a heating system, a reaction chamber, two feed ends, a liquid inlet end, a discharge end and a gas exhaust system, and the heating system is electrically connected to the controller. The two feed ends of the thermal degrader 421 are fixedly connected to an interconnecting pipe 422, and the other end of the interconnecting pipe 422 is connected to the discharge port 311. The liquid inlet end of the thermal degrader 421 is fixedly connected to a one-way liquid sprayer 423, and the input end of the one-way liquid sprayer 423 is connected to the other end of the transmission pipe 413. The discharge end of the thermal degrader 421 is fixedly connected to a suction device 424, and the input end of the suction device 424 is fixedly connected to a suction pipe 425.

[0069] The thermal degrader 421 in the thermal degradation component 42 can be used to achieve thermal degradation of impurities attached to the particles, and the interconnecting pipe 422 can collect the particles discharged from the discharge port 311 into the thermal degrader 421, and the degradation agent transmitted by the transmission pipe 413 can be sprayed into the particles in the thermal degradation process through the one-way sprayer 423, and after the thermal degradation is completed, it is transmitted to the heat exchanger 44 through the suction device 424 and the suction pipe 425 for cooling treatment.

[0070] Reference Figures 14 and 15 A centrifugal pump 43 is fixedly connected to the bottom of the base 1, and the input end of the centrifugal pump 43 is fixedly connected to a T-tube, the input end of the T-tube is connected to the other end of the suction pipe 425, and the output end of the T-tube is connected to the input end of the centrifugal pump 43, and the output end of the centrifugal pump 43 is connected to the input end of the heat exchanger 44 through a pipeline, and the heat exchanger 44 is fixedly connected to the side of the screening box 31, and the side of the screening box 31 is fixedly connected to a pump body 45, the input end of the pump body 45 is connected to the output end of the heat exchanger 44 through a pipeline, and the output end of the pump body 45 is connected to the input end of the particle box 46 through a pipeline. The particle box 46 consists of a storage box and a suction pump, and particles are stored in the storage box. A second electromagnetic block 462 is fixedly connected to the side of the particle box 46, and the second electromagnetic block 462 is electrically connected to the controller. The output end of the particle box 46 is fixedly connected to a particle conveying pipe 461, and the other end of the particle conveying pipe 461 is connected to the input end of the tee pipe 2521.

[0071] The centrifugal pump 43 can be used to transfer the particles sucked by the suction device 424 to the heat exchanger 44 through the suction pipe 425 for cooling. The particles that have been cooled in the heat exchanger 44 will be sucked through the pump body 45 and transferred to the particle box 46. The particle box 46 magnetizes the particles through the second electromagnetic block 462 and re-transports the particles to the particle spraying pipe 252 through the particle conveying pipe 461 (the second electromagnetic block 462 has opposite magnetic poles to the first electromagnetic block 29).

[0072] The operating principle of this embodiment is as follows:

[0073] Step 1: First, the controller opens the valve on the delivery pipe 221 connected to the equipment of the previous process (the controller of this solution can be interconnected with the equipment of the previous process, so that after the treatment of the equipment of the previous process is completed, the controller of this solution immediately executes the preset program, or it can be manually controlled by the staff), so that the sewage treated in the previous process flows into the diverter 222 through the delivery pipe 221, and the diverter 222 evenly distributes the sewage to the four liquid spraying pipes 223, so that the sewage is sprayed to the cone box 231 in all directions to ensure full contact with all directions. At the same time, the controller also starts the first electromagnetic block 29 to generate a dispersed magnetic field. Since the first electromagnetic block 29 is in the magnetic area, The dispersed magnetic field generated by the first electromagnetic block 29 will fill the attached magnetic area (the conical box 231 and the magnetic shield box 21 are made of magnetic shielding materials, such as high silicon steel, nickel-iron alloy, etc.). Since the magnetic collecting cover 242 in the attached magnetic assembly 24 is also located in the attached magnetic area, and the magnetic collecting cover 242 is conical with its large mouth facing the attached magnetic area, it can collect the magnetic field emitted by the first electromagnetic block 29. Because the design of the magnetic collecting cover 242 increases the magnetic field collection area, it is like a funnel, which gathers as much of the dispersed magnetic field in the attached magnetic area as possible, thereby enabling the conical magnetic collecting cover 242 to better guide the magnetic field lines, reduce the loss of the magnetic field, improve the magnetic field collection efficiency, and concentrate the collected magnetic field in the direction of the narrow mouth of the magnetic collecting cover 242.

[0074] When the magnetic field is concentrated from the large mouth of the magnetic collecting cover 242 to the narrow mouth of the magnetic collecting cover 242 (the narrow mouth direction points to the magnetic hollow ball 241), the linear array of magnetic collecting circles 243 with decreasing width on the inner wall of the magnetic collecting cover 242 enhances and guides the collected magnetic field. When the magnetic field is conducted along the magnetic collecting circles 243 to the magnetic hollow ball 241, due to the structure of the decreasing width of the magnetic collecting circles 243, the magnetic field strength gradually increases. This is like a magnetic field amplifier, which focuses the originally dispersed and relatively weak magnetic field energy, making the magnetic field reaching the magnetic hollow ball 241 stronger. The enhanced magnetic field is conducted to the magnetic hollow ball 241 through the magnetic column 244. The multiple grooves opened on the column body of the magnetic column 244 increase the surface area of the magnetic field conduction. This helps the magnetic field enter the magnetic hollow ball 241 more evenly. After the magnetic hollow ball 241 gathers the magnetic field from the magnetic collecting cover 242 and the magnetic column 244, it transmits the magnetic field in a directionally directed manner to the sewage passing through the conical box 231. The sewage flows in the conical box 231 and is fully in contact with the magnetic component 24. The magnetic field acts on the impurities in the sewage (the impurities in the sewage mainly include: textile fiber debris, fine particles generated by cloth processing, and other suspended matter, as well as various organic substances such as dyes and auxiliaries remaining in the textile production process), causing the impurities to carry magnetic poles (the impurities carry magnetic poles determined by the first electromagnetic block 29), thereby magnetizing the impurities and making the impurities in the sewage magnetic. The magnetized wastewater flows into the adsorption box 251 through the connecting pipe 232 under the action of gravity;

[0075] It should be noted that during the entire wastewater treatment process, as long as the controller keeps the first electromagnetic block 29 energized, the first electromagnetic block 29 will continue to generate a magnetic field, the magnetic collecting cover 242 will continue to collect the magnetic field, the magnetic collecting ring 243 will continue to enhance and guide the magnetic field, the magnetic column 244 will stably conduct the magnetic field, and the magnetic hollow ball 241 will continue to transmit the magnetic field in a directionally directed manner to the magnetized impurities in the sewage. This cycle repeats, and the sewage impurities passing through the conical box 231 are continuously magnetized.

[0076] Among them, when wastewater flows into the adsorption box 251, since the adsorption box 251 is provided with a liquid level sensor (the liquid detector is a prior art and is not shown in the figure), the capacitive liquid level sensor will feedback the information of the presence of liquid to the controller when it detects the presence of sewage in the adsorption box 251, and the controller then controls the suction pump of the particle box 46 to start, so that the magnetic particles in the box (which are opposite to the magnetic properties of impurities in the wastewater, are not magnetic. Their magnetism comes from the second electromagnetic block 462, and the first electromagnetic block 29 and the magnetic field of the impurities in the wastewater are opposite to the magnetic fields of the impurities in the wastewater, and the magnetic fields ... The second electromagnetic block 462 is different and will be explained in the third step) and enters the particle spraying pipe 252 through the particle conveying pipe 461 and the three-way pipe 2521, and is evenly sprayed into the wastewater in the adsorption box 251. At the same time, the controller sends an operation signal to the driver 27 and the magnetizer 28, so that the driver 27 (the driver 27 is a low-speed motor) drives the rotating rod 261 of the stirring assembly 26 to rotate. When the rotating rod 261 rotates, it also synchronously drives the stirring ring 262, the particle rebound structure 263 and the liquid drainage structure 264 to rotate synchronously.

[0077] Among them, since the driver 27 is a low-speed motor, it can provide a large torque to ensure that the rotating rod 261 rotates smoothly and at a low speed, avoiding many problems in the wastewater treatment process caused by excessive rotation speed, which affects the magnetic particles from capturing magnetized impurities in the sewage. For example: if the rotation speed is too fast, the magnetic particles move too fast in the sewage. When they collide with the magnetized impurities, the speed is too high, and the magnetic attraction does not have time to take effect and they bounce off each other, reducing the capture efficiency; at the same time, if the rotation speed is too fast, the sewage will produce strong turbulence, disrupting the movement trajectory of the magnetic particles and the magnetized impurities that rely on magnetism to approach each other; and smooth and low-speed rotation can effectively avoid these problems and ensure that the magnetic particles efficiently capture the magnetized impurities in the sewage.

[0078] During the rotation of the rotating rod 261, the stirring ring 262, the particle rebound structure 263 and the liquid drainage structure 264 also rotate synchronously with the rotating rod 261, and each has different effects:

[0079] During the rotation of the stirring ring 262, the stirring ring 262 acts like a paddle to apply stirring force to the sewage and magnetic particles in the adsorption box 251. The stirring ring 262 continuously cuts the sewage, allowing the sewage and magnetic particles to be fully mixed. This stirring action increases the contact frequency between the magnetic particles and the magnetized impurities in the sewage, promoting the magnetic particles to capture impurities and improving the adsorption efficiency. At the same time, the rotation of the stirring ring 262 also causes the sewage to circulate in the adsorption box 251, ensuring that the sewage and particles in the entire adsorption box 251 are evenly mixed, thereby ensuring the consistency of the adsorption effect.

[0080] During the rotation of the particle rebound structure 263: Since the stirring ring 262 is stirring during the process, some magnetic particles may gather in a local area of the adsorption box 251, thereby affecting the adsorption effect. Therefore, during the synchronous rotation of the particle rebound structure 263, the capture cover 2633 in the particle rebound structure 263 will intercept the magnetic particles when it contacts the gathered magnetic particles during the rotation. Since the elastic block 2632 is made of a material with slight elasticity (such as polyurethane material, rubber modified material), the elastic block 2632 will be elastically deformed after being hit by the particles, and then the magnetic particles will be rebounded, thereby changing the movement trajectory of the magnetic particles and dispersing the magnetic particles to different areas of the adsorption box 251, avoiding excessive concentration of magnetic particles, ensuring that the magnetic particles are more evenly distributed in the sewage, and improving the adsorption effect;

[0081] During the rotation of the liquid drainage structure 264: the flexible multi-grooved block 2643 can buffer and guide the flow of sewage, disperse the impact force generated by the stirring circle 262, and convert larger water flow fluctuations into smaller, more stable water flows. At the same time, the flexible multi-grooved block 2643 can also guide the sewage to flow in a specific direction, so that the sewage forms an orderly circulation in the adsorption box 251, avoiding unstable flow states such as eddy currents, maintaining the stability of the adsorption process, and ensuring that the magnetic particles are fully in contact with and adsorbed by impurities in the sewage.

[0082] Among them, the magnetizer 28 is composed of a frequency converter and an electromagnet, and the frequency converter is connected to the controller and the power supply. The frequency converter can convert fixed-frequency alternating current into alternating current with variable frequency and voltage (the specific conversion adjustment can be customized by the staff in the controller according to the actual situation). The output current contains harmonic components. When this current with harmonics is passed into the electromagnet, the harmonics will cause irregular changes in the magnitude and direction of the current. According to the principle of electromagnetic induction, the magnetic field strength and direction generated by the electromagnet will also change irregularly, thereby generating a tiny chaotic magnetic field. The rotating rod 261 of the stirring assembly 26 drives the stirring ring 262 to stir the sewage and magnetic particles. The chaotic magnetic field generated by the magnetizer 28 interferes with the originally relatively orderly magnetic field environment. This interference makes the motion trajectory of the magnetic particles more complex and changeable, increases the contact opportunities between the magnetic particles and the magnetized impurities in the sewage, and allows the magnetic particles to approach the impurities from different angles and in different ways, thereby improving the effect of the magnetic particles in capturing magnetized impurities in the sewage and strengthening the adsorption link in the entire wastewater treatment process.

[0083] It should be noted that the magnetism generated by the magnetizer 28 is lower than the magnetism of impurities and magnetic particles in sewage.

[0084] Step 2: The controller then issues a command to open the electric drain valve 253 at the bottom of the adsorption box 251 (the electric drain valve 253 is closed when the device is just started. Only when the liquid level sensor detects that there is liquid in the adsorption box 251 and the particle box 46 is in the starting state, the controller will open the electric drain valve 253. In addition, the electric drain valve 253 is always open during the operation of the device. Only when the device stops working will the electric drain valve 253 be closed). Wastewater and magnetic particles attached to impurities are discharged. The wastewater flows into the screening box 31. The curved top plate 321 in the screening box 31 disperses the wastewater and magnetic particles to the inclined plates 322 on both sides. The screening holes 323 on the inclined plates 322 allow the wastewater to flow into the bottom of the screening box 31 and enter the next process equipment through the drainage pipe, while the magnetic particles fall into the holding box 33. At this time, the controller controls the electric slider 34 to slide on the inner wall of the screening box 31. The electric slider 34 drives the push block 35 to move back and forth in the holding box 33, pushing the magnetic particles out from the discharge port 311 and allowing them to enter the particle processing mechanism 4.

[0085] Among them, because the interconnecting pipe 422 of the thermal degrader 421 is connected to the discharge port 311, the magnetic particles enter the reaction chamber of the thermal degrader 421. Then, the infusion tank 411 of the degradation conveying component 41 stores the degradation agent (the degradation conveying component 41 includes a suction pump by default). The two-position three-way valve 412 at the output end controls the flow direction of the degradation agent. Under the control of the controller, the two-position three-way valve 412 is opened, and the degradation agent in the infusion tank 411 flows into the one-way sprayer 423 through the transmission pipe 413, and is then sprayed into the reaction chamber of the thermal degrader 421 to assist in the decomposition of impurities attached to the magnetic particles.

[0086] Then, the heating system of the thermal degrader 421 is started under the control of the controller, and the particles and degradation agent in the reaction chamber are heated to a specific temperature. Under the combined action of the high temperature environment and the degradation agent, the impurities captured on the magnetic particles undergo a chemical reaction and are decomposed. At the same time, the magnetism attached to the magnetic particles begins to weaken or disappear (the specific reason is explained in the third step), and the waste gas generated is discharged by the gas exhaust system to achieve separation of particles and impurities. After the thermal degradation is completed, the suction device 424 is started to suck the degraded particles through the suction pipe 425 (the degraded magnetic particles are called particles because their magnetism is weakened or disappears, and they themselves do not have magnetism). The centrifugal pump 43 at the bottom of the base 1 is started to suck the particles sucked by the suction pipe 425. The particles are transported to the heat exchanger 44, where they exchange heat with the cooling medium and their temperature is reduced, thus preventing the high temperature from affecting the subsequent equipment and particle performance. The cooled particles are sucked out of the heat exchanger 44 by the pump body 45 and transported to the storage box of the particle box 46. The second electromagnetic block 462 on the side of the particle box 46 re-magnetizes the particles under the control of the controller (the particles re-magnetized by the second electromagnetic block 462 become magnetic particles again), restoring their magnetic state. When new wastewater needs to be treated, the suction pump of the particle box 46 is started, and the magnetic particles enter the particle spraying pipe 252 through the particle conveying pipe 461 and the three-way pipe 2521, and participate in the process of adsorbing impurities in the sewage again, thereby realizing the recycling of particles.

[0087] Step 3: Explain the problems in Step 1 and Step 2:

[0088] The first electromagnetic block 29 is installed in the magnetic attachment area within the magnetic shield box 21. When wastewater treatment begins, the controller sets the current direction of the first electromagnetic block 29 based on the treatment requirements and sends a power-on signal to it. According to Ampere's law (right-hand screw rule), the current direction determines the magnetic pole distribution of the magnetic field generated by the first electromagnetic block 29. For example, if the current supplied by the controller causes the magnetic field generated by the first electromagnetic block 29 to have an N pole on the side closest to the sewage impurities, the impurities in the sewage will be magnetized by the magnetic field, and the end of the impurities near the N pole of the magnetic field of the first electromagnetic block 29 will exhibit an S pole, which is equivalent to the positive magnetization in this solution.

[0089] When the particles complete thermal degradation and cool down and enter the particle box 46, the controller transmits a current to the second electromagnetic block 462 in the opposite direction to that of the first electromagnetic block 29. Similarly, according to Ampere's law, the magnetic field generated by the second electromagnetic block 462 has a magnetic pole distribution opposite to that of the first electromagnetic block 29. If the sewage impurities near the north pole of the magnetic field of the first electromagnetic block 29 exhibit an south pole, the magnetic field generated by the second electromagnetic block 462 near the particle will have an south pole, causing the particle near the south pole of the magnetic field of the second electromagnetic block 462 to exhibit an north pole, which is equivalent to negative magnetism in this solution. This achieves opposite magnetic poles between the particles and the sewage impurities, thereby meeting the functional requirements of subsequent magnetic adsorption and separation of impurities.

[0090] 2): Why does the magnetism attached to the magnetic particles begin to weaken or disappear when the magnetic particles are subjected to thermal degradation in the thermal degrader 421?

[0091] The magnetic particles themselves do not have magnetism, and their magnetism is imparted by the second electromagnetic block 462. When thermal degradation is carried out in the thermal degrader 421, on the one hand, the high temperature environment in the thermal degrader 42 intensifies the thermal motion of the microscopic particles inside the particles, disrupting the ordered magnetic moment arrangement originally formed by the magnetization of the second electromagnetic block 462. The directions of the magnetic moments tend to be chaotic and offset each other, resulting in weakened magnetism; on the other hand, the chemical reaction between the degradation agent and the impurities attached to the particles will change the chemical composition and structure of the particle surface, forming a covering layer on the particle surface that hinders magnetic conduction, or causing changes in the crystal structure inside the particles, further destroying their magnetism, and ultimately causing the magnetism of the magnetic particles to begin to weaken or disappear during the thermal degradation process.

[0092] The above embodiments are only used to illustrate the technical solutions of the present invention, rather than to limit the same. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art should understand that they can still modify the technical solutions described in the aforementioned embodiments, or make equivalent replacements for some of the technical features therein. However, these modifications or replacements will not cause the essence of the corresponding technical solutions to deviate from the protection scope of the technical solutions of the various embodiments of the present invention.

Claims

1. A textile factory wastewater treatment device, characterized in that: include: Base (1); A magnetic adsorption mechanism (2), the magnetic adsorption mechanism (2) comprising a magnetic shield box (21) and an adsorption assembly (25) arranged above the base (1), wherein the interior of the magnetic shield box (21) is provided with a liquid injection assembly (22), a liquid collection assembly (23) and a first electromagnetic block (29) in order from top to bottom, a plurality of magnetic attachment assemblies (24) are provided in a rectangular array around the liquid collection assembly (23), and the interior of the adsorption assembly (25) is provided with two stirring assemblies (26) and a chaotic magnetic device (28) for generating a chaotic magnetic field; A separation mechanism (3), the separation mechanism (3) comprising a screening box (31) fixedly connected between the upper end surface of the base (1) and the adsorption assembly (25), wherein a screening assembly (32) for separating liquid and particles is provided inside the screening box (31); a particle processing mechanism (4), the particle processing mechanism (4) being used to transport particles to the adsorption component (25) and to recover particles in the screening box (31); The liquid collection component (23) includes a conical box (231) fixedly connected to the inside of the magnetic shield box (21), a narrow end of the conical box (231) is fixedly connected to a connecting pipe (232), and the conical box (231) forms a magnetic attachment area in the lower half of the magnetic shield box (21), and the first electromagnetic block (29) is fixedly connected to the four sides of the magnetic attachment area, and the first electromagnetic block (29) is electrically connected to the controller; The magnetic component (24) includes a magnetic hollow ball (241) fixedly connected to the inner wall of the conical box (231), the open end of the magnetic hollow ball (241) is fixedly connected to a magnetic collecting cover (242), and the other side of the magnetic collecting cover (242) passes through the conical box (231) and corresponds to the first electromagnetic block (29), the inner wall of the magnetic collecting cover (242) and close to the direction of the magnetic hollow ball (241) are fixedly connected to a plurality of magnetic collecting rings (243) with decreasing widths in a linear array, the inner spherical surface of the magnetic hollow ball (241) is fixedly connected to a magnetic column (244), and the column body of the magnetic column (244) is evenly provided with a plurality of grooves; The adsorption assembly (25) comprises an adsorption box (251) fixedly connected to the upper end surface of the screening box (31), the upper end surface of the adsorption box (251) is fixedly connected to the magnetic shield box (21), and the end of the connecting pipe (232) away from the conical box (231) is connected to the screening box (31), both sides of the upper end surface of the adsorption box (251) in the length direction are fixedly connected to the particle spraying pipe (252), the output end of the particle spraying pipe (252) is fixedly connected to a three-way pipe (2521), the three-way pipe (2521) has two output ends and one input end, and the two output ends of the three-way pipe (2521) are respectively connected to the two particle spraying pipes (252), the bottom of the adsorption box (251) is fixedly connected to an electric drain valve (253), and the electric drain valve (253) is electrically connected to a controller, the bottom of the screening box (31) is connected to a drain pipe, and the drain pipe is connected to the next process equipment; The magnetic randomizer (28) is located between the two stirring assemblies (26), and the magnetic randomizer (28) is electrically connected to the controller. The stirring assembly (26) includes a rotating rod (261) rotatably connected to the inner wall of the adsorption box (251), and two groups of stirring rings (262) are fixedly connected in an annular array at both ends of the rotating rod (261). A group of particle rebound structures (263) are provided in an annular array at both ends of the rotating rod (261), and the particle rebound structures (263) are located in any two adjacent stirring rings (262). The particle rebound structure (263) includes a fixed seat (2631) fixedly connected to the rod of the rotating rod (261), an elastic block (2632) is fixedly connected to the upper end surface of the fixed seat (2631), and a capture cover (2633) is fixedly connected to the opposite sides of the elastic block (2632); The rotating rod (261) is located between two groups of stirring rings (262) and is provided with a plurality of liquid drainage structures (264). The liquid drainage structure (264) includes a fixed plate (2641) fixedly connected to the rod body of the rotating rod (261), the upper end surface of the fixed plate (2641) is fixedly connected to a hollow fixed frame (2642), the internal linear array of the hollow fixed frame (2642) is fixedly connected to a plurality of flexible multi-groove blocks (2643), and the side of the adsorption box (251) is fixedly connected to a driver (27) for driving the two stirring assemblies (26) to rotate synchronously, and the driver (27) is electrically connected to a controller.

2. A textile factory wastewater treatment device according to claim 1, characterized in that: A controller is installed on the side of the base (1); A pair of discharge ports (311) are provided on both sides of the screening box (31) in the width direction. The screening assembly (32) includes an arc-shaped top plate (321) fixedly connected to the upper position of the inner wall of the screening box (31). Both sides of the arc-shaped top plate (321) in the length direction are fixedly connected to inclined plates (322). A plurality of screening holes (323) are provided in a rectangular array on the plate surface of the inclined plate (322). A side of the inclined plate (322) away from the arc-shaped top plate (321) is fixedly connected to a holding box (33). The holding box (33) corresponds to and is connected to the discharge port (311). The screening box (31) is slidably connected to an electric slider (34) near the inner wall of the holding box (33), and the electric slider (34) is electrically connected to a controller. A push block (35) is slidably connected to the interior of the holding box (33), and the push block (35) is fixedly connected to the electric slider (34).

3. A textile factory wastewater treatment device according to claim 1, characterized in that: The magnetic shield box (21) is arranged on the upper end surface of the adsorption component (25), and the liquid injection component (22) includes four liquid spraying pipes (223) fixedly connected to the upper position of the top of the inner wall around the magnetic shield box (21). The inner top of the magnetic shield box (21) is fixedly connected to a diverter (222), and the diverter (222) has at least four output ends and one input end. The output end of the diverter (222) is connected to the liquid spraying pipe (223) through a pipeline, and the input end of the diverter (222) is connected to a delivery pipe (221). The other end of the delivery pipe (221) passes through the magnetic shield box (21) and is connected to the previous process equipment.

4. A textile factory wastewater treatment device according to claim 2, characterized in that: The particle processing mechanism (4) includes a degradation conveying component (41), two thermal degradation components (42), a cold heat exchanger (44) and a particle box (46); The degradation conveying assembly (41) comprises an infusion box (411) fixedly connected to the side of the screening box (31); the output end of the infusion box (411) is provided with a two-position three-way valve (412); the two-position three-way valve (412) has two output ends and one input end; the input end of the two-position three-way valve (412) is connected to the output end of the infusion box (411); and the output end of the two-position three-way valve (412) is fixedly connected to a transmission pipe (413).

5. A textile factory wastewater treatment device according to claim 4, characterized in that: The thermal degradation component (42) includes a thermal degrader (421) fixedly connected to the side of the screening box (31), the thermal degrader (421) is composed of a heating system, a reaction chamber, two feed ends, a liquid feed end, a discharge end and a gas exhaust system, and the heating system is electrically connected to the controller. The two feed ends of the thermal degrader (421) are fixedly connected to an interconnecting pipe (422), the other end of the interconnecting pipe (422) is connected to the discharge port (311), the liquid feed end of the thermal degrader (421) is fixedly connected to a one-way liquid sprayer (423), the input end of the one-way liquid sprayer (423) is connected to the other end of the transmission pipe (413), the discharge end of the thermal degrader (421) is fixedly connected to a suction device (424), and the input end of the suction device (424) is fixedly connected to a suction pipe (425).

6. A textile factory wastewater treatment device according to claim 5, characterized in that: The bottom of the base (1) is fixedly connected to a centrifugal pump (43), the input end of the centrifugal pump (43) is fixedly connected to a T-shaped tube, the input end of the T-shaped tube is connected to the other end of the suction pipe (425), the output end of the T-shaped tube is connected to the input end of the centrifugal pump (43), the output end of the centrifugal pump (43) is connected to the input end of the heat exchanger (44) through a pipeline, the heat exchanger (44) is fixedly connected to the side of the screening box (31), and the side of the screening box (31) is fixedly connected to a pump body (45), the input end of the pump body (45) is connected to the pipe. The channel is connected to the output end of the heat exchanger (44), and the output end of the pump body (45) is connected to the input end of the particle box (46) through a pipeline. The particle box (46) is composed of a storage box and a suction pump, and particles are stored in the storage box. The side of the particle box (46) is fixedly connected to a second electromagnetic block (462), and the second electromagnetic block (462) is electrically connected to the controller. The output end of the particle box (46) is fixedly connected to a particle conveying pipe (461), and the other end of the particle conveying pipe (461) is connected to the input end of the three-way pipe (2521).

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