Dichloroaniline waste residue crushing treatment device

Abstract

The invention discloses a dichloroaniline waste residue smashing treatment device and relates to the field of chemical waste residue smashing, the dichloroaniline waste residue smashing treatment device comprises a feeding hopper, a waste residue discharging assembly and a smashing assembly, the feeding hopper is connected with the waste residue discharging assembly, the waste residue discharging assembly comprises three sets of partition plates, rotating shafts and sliding grooves, one ends of the partition plates are connected through the rotating shafts, and the other ends of the partition plates are connected through the sliding grooves; sliding strips are arranged on one sides of the partition plates on the two sides and slide on the surfaces of the sliding grooves, waste residue discharging channels are formed in the lower portions of the sliding strips and the lower portions of the sliding grooves, the waste residue feeding assembly can control waste residues to be evenly discharged, volatilization of harmful gas during waste residue feeding is reduced, and the smashing assembly is connected with the waste residue discharging assembly. Waste residues enter the smashing assembly through the waste residue discharging channels on the two sides, the smashing assembly comprises two sets of smashing modules, the smashing modules can conduct cyclic smashing on the waste residues which are not fully smashed, and the waste residue smashing effect is guaranteed.

Description

Technical Field

[0001] The invention relates to the field of chemical waste residue crushing, in particular to a dichloroaniline waste residue crushing treatment device. Background Art

[0002] Nowadays, the domestic production capacity of aniline and nitrobenzene is increasing rapidly, and the amount of waste residues generated by such products is also gradually increasing. Dichloroaniline is widely used in many fields and is used as a dye intermediate, pesticide intermediate and biological component intermediate. The amount of dichloroaniline waste residues is also gradually increasing, and there is an urgent need for a device for crushing and treating dichloroaniline waste residues. Dichloroaniline waste residues contain various chemical substances, which are prone to produce toxic gases when crushed, which are harmful to the health of operators. Traditional waste residue crushers cannot avoid the harm of harmful gases generated by waste residues to the human body when crushing the waste residues. In addition, traditional waste residue crushers are often overloaded due to the overload of the amount of waste residue input, and the waste residue cannot be fully crushed, resulting in machine damage or poor waste residue crushing effect. Summary of the invention

[0003] The purpose of the present invention is to overcome the deficiencies of the prior art and provide a dichloroaniline waste residue crushing and processing device to solve the problems of the prior art waste residue crusher being easily overloaded, the waste residue crushing effect being poor, and the gas volatilized from the waste residue crushing causing harm to the human body.

[0004] In order to solve the above technical problems, the present invention adopts the following technical solution: a dichloroaniline waste residue crushing treatment device, comprising: A box body, a feed hopper is installed on the upper side of the box body, and the dichloroaniline waste residue enters the box body from the feed hopper; A support seat, the bottom end of the box body is equipped with the support seat; A waste residue unloading component, the waste residue unloading component is installed in the box body, the waste residue unloading component includes three groups of partitions, a rotating shaft and a slide groove, the three groups of partitions include a first partition, a second partition and a third partition, one end of each group of partitions is connected by the rotating shaft, two groups of slide bars are respectively arranged on one side of the first partition and the third partition, circular slide grooves are respectively installed on both sides of the box body, the slide bars slide on the surface of the slide groove, a first waste residue unloading channel is arranged at the lower part of the slide bar on the first partition, a second waste residue unloading channel is arranged at the lower part of the slide bar on the third partition, a first channel and a second channel are respectively arranged at the lower part of both sides of the slide groove, as the slide bar slides on the surface of the slide groove, the first waste residue unloading channel is aligned with the first channel, and the second waste residue unloading channel is aligned with the second channel; A crushing assembly, wherein the crushing assembly is connected to the output end of the waste residue feeding assembly, the crushing assembly comprises two groups of crushing modules, a first baffle is arranged between the two groups of the crushing modules, the crushing module comprises two crushing rollers, a second baffle, a screen plate and crushing beads, the second baffle is circular and installed on the inner surface of the box body, the crushing beads are evenly installed on the surface of the second baffle, the crushing blades of the two crushing rollers are meshed with each other and the two crushing rollers rotate in opposite directions, the two crushing rollers rotating in opposite directions are used to crush the waste residue, the crushed waste residue passes through the screen plate, and the incompletely crushed waste residue collides and is crushed by the crushing beads on the second baffle as the crushing roller rotates, and then is crushed by the two crushing rollers.

[0005] Preferably, an elastic body is installed at one end of each of the partitions, a first elastic body is installed at one end of the first partition, a second elastic body is installed at one end of the second partition, and a third elastic body is installed at one end of the third partition. A first groove and a second groove are arranged at the bottom of the feed hopper, and a third groove and a fifth groove are arranged at the lowest ends of the inner surfaces on both sides of the slide respectively. A fourth groove and a sixth groove are arranged on the surfaces of both sides of the slide at positions a certain arc length away from the third groove and the fifth groove on both sides respectively, the arc length between the first groove and the second groove is equal to the arc length between the third groove and the fourth groove, and is equal to the arc length between the fifth groove and the sixth groove. In an initial state, the first elastic body is stuck in the fourth groove, the second elastic body is stuck in the second groove, and the third elastic body is stuck in the fifth groove. When a certain weight of waste slag enters the first groove, After the first partition and the second partition have formed a space between them, the weight of the waste slag causes the first elastomer to disengage from the fourth groove and slide to the third groove, the second elastomer disengages from the second groove and slides to the first groove, the third elastomer slides into the sixth groove, and the waste slag flows out from the first waste slag discharge channel and the first channel, the waste slag in the feed hopper enters the space between the second partition and the third partition, the waste slag in the space between the second partition and the third partition reaches a preset weight, the third elastomer slides back into the fifth groove, the first elastomer and the second elastomer slide back into the fourth groove and the fifth groove respectively, so that the waste slag flows out through the second waste slag discharge channel and the second channel on both sides, and during the discharge process, the partitions being discharged are kept closed to prevent the gas generated by the discharge or the waste slag crushing from volatilizing.

[0006] Preferably, an air purification component is installed on the surface of the slide, and the air purification component includes an air purifier and an air intake fan. The air intake fan is installed on the surface of the slide, and the air purifier is connected to the air intake fan. The air intake fan is used to suck the gas volatilized from the waste residue between the partitions into the air purifier. The air purifier can absorb the gas volatilized from the waste residue in the dichloroaniline waste residue crushing treatment device or the gas generated by the waste residue crushing.

[0007] Preferably, a waste storage assembly is installed between the waste discharge assembly and the crushing assembly, and the waste storage assembly includes two groups of mutually symmetrical electric telescopic plates, and the electric telescopic plates include a first motor, a sleeve and a telescopic plate, and the first motor is used to drive the telescopic plate to extend and retract in the sleeve, and the space between the electric telescopic plate and the waste discharge assembly constitutes a waste storage space, and the waste falls into the waste storage space from the bottom of both sides of the waste discharge assembly respectively, so that the waste is evenly distributed in the waste storage space.

[0008] Preferably, a material distribution component is installed below the waste storage component, and the material distribution component includes a first isolation plate, a second isolation plate, a third isolation plate, a second motor, two groups of weight sensors and a rotating block. The rotating block is a triangular prism, and the side of the rotating block is an isosceles right triangle. The rotating block is placed directly below the two groups of electric telescopic plates. The second motor is installed at the center of the rotating block to drive the rotating block to rotate. The two groups of weight sensors are respectively installed on one side of the right-angled side of the rotating block. The first isolation plate, the second isolation plate and the third isolation plate are respectively installed on the edges of the rotating block at an angle of 90 degrees to each other. The weight sensor is used to control the rotation of the second motor when a preset weight is reached. The weight sensor can make the weight of the waste slag carried between the first isolation plate, the third isolation plate and the second isolation plate within the rated load of the crushing component.

[0009] Preferably, a first baffle is arranged below the material dividing assembly, and a third baffle is arranged below the material dividing assembly. After the second motor drives the rotating block to rotate, two ends of the first isolation plate and the third isolation plate are respectively placed on two ends of the third baffle. Guide plates are respectively arranged on both sides of the inner surface of the box body, and the guide plates are connected to the output end of the material dividing assembly. The guide plates are used to guide the waste slag to the center position of the two groups of crushing rollers. When the first isolation plate is placed on the third baffle, the waste slag between the first isolation plate and the second isolation plate falls downward through the guide plate into one group of crushing modules of the crushing assembly. At this time, the waste slag storage assembly transports the waste slag to the space between the second isolation plate and the third isolation plate. After the waste slag is transported, when the second motor rotates to drive the third isolation plate to be placed on the third baffle, the waste slag between the third isolation plate and the second isolation plate falls downward through the guide plate into another group of crushing modules of the crushing assembly.

[0010] Preferably, both sides of the first baffle are concave arc-shaped, and crushing beads are evenly arranged on both sides of the arc-shaped surface. The incompletely crushed waste residue collides and is crushed by the crushing beads on the first baffle as the crushing roller rotates, and then is crushed by two crushing rollers, thereby increasing the waste residue crushing effect of the crushing module.

[0011] Preferably, a plurality of sieve holes of preset sizes are arranged inside the sieve plate, and the crushed raw materials flow out through the sieve holes. The sieve holes can control the outflow of waste residues of a suitable size after crushing, and the residues that are not fully crushed continue to be crushed in the crushing assembly.

[0012] Preferably, a discharge pipe is installed at the lower side of the pulverizing assembly, and a discharge port is arranged at the bottom end of the discharge pipe, so that the pulverized waste residue automatically falls into the discharge pipe and flows out through the discharge port.

[0013] Beneficial effects: The present invention provides a device for crushing and processing dichloroaniline waste residue, wherein the waste residue unloading component can discharge the waste residue evenly from both sides, and the space is kept closed during the unloading process, and an air purifier is provided, wherein the air purifier can fully absorb and purify the gas generated during the waste residue unloading, sorting and crushing process, so as to avoid the volatile gas from causing harm to the human body, and the weight sensor can make the weight of the waste residue flowing from the sorting component to the crushing component be within the rated load of the crushing component, so as to ensure the normal operation of the machine, reduce the machine failure rate and improve the waste residue crushing effect, and the crushing module can make the fully crushed waste residue flow out from the sieve plate by setting crushing rollers, crushing beads and sieve plates, and the incompletely crushed waste residue re-enters the crushing rollers, and the waste residue is fully crushed through the action of the two groups of crushing rollers and the crushing rollers driving the incompletely crushed waste residue to collide with the crushing beads, thereby improving the crushing effect of the dichloroaniline waste residue. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] The accompanying drawings are used to provide further understanding of the present invention and constitute a part of the specification. They are used to explain the present invention together with the embodiments of the present invention and do not constitute a limitation of the present invention.

[0015] In the attached picture: Figure 1 It is a schematic diagram of the whole dichloroaniline waste residue crushing treatment device of the present invention; Figure 2 It is a schematic diagram of the waste residue unloading assembly of the present invention; Figure 3 It is a schematic diagram of the first waste residue discharge channel and the first channel of the present invention; Figure 4 is a schematic diagram of the third elastic body and the sixth groove of the present invention; Figure 5 It is a schematic diagram of the waste residue storage component and the material distribution component of the present invention; Figure 6 is a schematic diagram of a pulverizing assembly of the present invention; Figure 7 It is a partial schematic diagram of the sieve plate of the present invention.

[0016] Numbers in the figure: 1, feed hopper; 2, waste residue unloading assembly; 3, waste residue storage assembly; 4, box; 5, material distribution assembly; 6, crushing assembly; 7, discharge port; 8, support seat; 9, air purifier; 10, air intake fan; 11, slide; 12, slide bar; 13, rotating shaft; 14, first partition; 15, second partition; 16, third partition; 17, fourth groove; 18, first groove; 19, second groove; 20, fifth groove; 21, second elastic body; 22, first channel; 23, first waste residue unloading channel; 24, first elastic body; 25 , second channel; 26, second waste discharge channel; 27, third elastic body; 28, first motor; 29, sleeve; 30, waste storage space; 31, telescopic plate; 32, second isolation plate; 33, weight sensor; 34, first isolation plate; 35, second motor; 36, rotating block; 37, third isolation plate; 38, guide plate; 39, third baffle; 40, crushing beads; 41, first baffle; 42, second baffle; 43, sieve plate; 44, discharge pipe; 45, crushing roller; 46, sieve hole; 47, third groove; 48, sixth groove. DETAILED DESCRIPTION

[0017] The technical solutions in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, rather than all of the embodiments. The following text is only used to describe an implementation method of a dichloroaniline waste residue crushing treatment device of the present invention, and does not strictly limit the protection scope of the specific request of the present invention.

[0018] In addition, if there are descriptions involving "first", "second", etc. in the embodiments of the present invention, the descriptions of "first", "second", etc. are only used for descriptive purposes and cannot be understood as indicating or suggesting their relative importance or implicitly indicating the number of technical features indicated. Therefore, the features defined as "first" and "second" may explicitly or implicitly include at least one of such features.

[0019] Example: Figure 1-Figure 7 As shown, a dichloroaniline waste residue crushing treatment device comprises: Box 4, such as Figure 1 As shown, a feed hopper 1 is installed on the upper side of the box body 4, and the dichloroaniline waste residue enters the box body 4 from the feed hopper 1; A support seat 8 is installed at the bottom end of the box body 4; Waste slag unloading component 2, such as Figure 2As shown, the waste slag unloading component 2 is installed in the box body 4, and the waste slag unloading component 2 includes three groups of partitions, a rotating shaft 13 and a slide 11. The partitions include a first partition 14, a second partition 15, and a third partition 16. One end of each group of the partitions is connected by the rotating shaft 13. Two groups of slide bars 12 are respectively arranged on one side of the first partition 14 and the third partition 16. Circular slide grooves 11 are respectively installed on both sides of the box body 4. The slide bars 12 slide on the surface of the slide groove 11. A first waste slag unloading channel 23 is arranged at the lower part of the slide bar 12 on the first partition 14, and a second waste slag unloading channel 26 is arranged at the lower part of the slide bar 12 on the third partition 16. A first channel 22 and a second channel 25 are respectively arranged at the lower part of both sides of the slide groove 11. As the slide bar 12 slides on the surface of the slide groove 11, the first waste slag unloading channel 23 is aligned with the first channel 22, and the second waste slag unloading channel 26 is aligned with the second channel 25. The crushing component 6 is connected to the output end of the waste residue feeding component 2. Figure 6 As shown, the crushing assembly 6 includes two groups of crushing modules, a first baffle 41 is arranged between the two groups of crushing modules, the crushing module includes two crushing rollers 45, a second baffle 42, a screen plate 43 and crushing beads 40, the second baffle 42 is circular and installed on the inner surface of the box body 4, the crushing beads 40 are evenly installed on the surface of the second baffle 42, the crushing blades of the two crushing rollers 45 are meshed with each other and the two crushing rollers 45 rotate in opposite directions, and the two crushing rollers 45 rotating in opposite directions are used to crush the waste slag, such as Figure 7 As shown, the crushed waste residue passes through the screen plate 43 , and the incompletely crushed waste residue collides and is crushed by the crushing beads 40 on the second baffle 42 as the crushing roller 45 rotates, and then is crushed by two crushing rollers 45 .

[0020] In an embodiment, an elastic body is installed at one end of each of the partitions, such as Figure 3 As shown, a first elastic body 24 is installed at one end of the first partition 14, and a second elastic body 21 is installed at one end of the second partition 15. Figure 4 As shown, a third elastomer 27 is installed at one end of the third partition 16, a first groove 18 and a second groove 19 are arranged at the bottom of the feed hopper 1, a third groove 47 and a fifth groove 20 are respectively arranged at the lower ends of the inner surfaces on both sides of the slide groove 11, and a fourth groove 17 and a sixth groove 48 are respectively arranged on the two side surfaces of the slide groove 11 at a position of a certain arc length away from the third groove 47 and the fifth groove 20 on both sides, the arc length between the first groove 18 and the second groove 19 is equal to the arc length between the third groove 47 and the fourth groove 17, and is equal to the arc length between the fifth groove 20 and the sixth groove 48.

[0021] In an embodiment, Figure 2As shown, an air purification component is installed on the surface of the slide 11, and the air purification component includes an air purifier 9 and an air intake fan 10. The air intake fan 10 is installed on the surface of the slide 11, and the air purifier 9 is connected to the air intake fan 10. The air intake fan 10 is used to suck the gas volatilized from the waste residue between the partitions into the air purifier 9. The air purification component can absorb the gas volatilized from the waste residue in the dichloroaniline waste residue crushing treatment device or the gas generated by the waste residue crushing.

[0022] In an embodiment, Figure 5 As shown, a waste storage assembly 3 is installed between the waste discharge assembly 2 and the crushing assembly 6, and the waste storage assembly 3 includes two groups of mutually symmetrical electric telescopic plates 31, and the electric telescopic plates 31 include a first motor 28, a sleeve 29 and a telescopic plate 31. The first motor 28 is used to drive the telescopic plate 31 to extend and retract in the sleeve 29, and the space between the electric telescopic plate 31 and the waste discharge assembly 2 constitutes a waste storage space 30.

[0023] In an embodiment, Figure 5 As shown, a material distribution component 5 is installed below the waste storage component 3, and the material distribution component 5 includes a first isolation plate 34, a second isolation plate 32, a third isolation plate 37, a second motor 35, two groups of weight sensors 33 and a rotating block 36. The rotating block 36 is a triangular prism, and the side of the rotating block 36 is an isosceles right triangle. The rotating block 36 is placed directly below the two groups of the electric telescopic plates 31. The second motor 35 is installed at the center position of the rotating block 36 to drive the rotating block 36 to rotate. The two groups of weight sensors 33 are respectively installed on one side of the right-angled side of the rotating block 36. The first isolation plate 34, the second isolation plate 32 and the third isolation plate 37 are respectively installed on the edges of the rotating block 36 at an angle of 90 degrees to each other. The weight sensor 33 is used to control the rotation of the second motor 35 when a preset weight is reached. The weight sensor 33 can make the weight of the waste slag carried between the first isolation plate 34, the third isolation plate 37 and the second isolation plate 32 within the rated load of the crushing component 6.

[0024] In an embodiment, Figure 6As shown, a first baffle 41 is provided below the material distribution component 5, and a third baffle 39 is provided below the material distribution component 5. After the second motor 35 drives the rotating block 36 to rotate, the two ends of the first isolation plate 34 and the third isolation plate 37 can be respectively placed on the two ends of the third baffle 39. Guide plates 38 are provided on both sides of the inner surface of the box body 4, respectively. The guide plates 38 are connected to the output end of the material distribution component 5. The guide plates 38 are used to guide the waste slag to the center position of the two groups of crushing rollers 45. The first isolation plate 34 is placed on the third When the baffle plate 39 is on, the waste residue between the first isolation plate 34 and the second isolation plate 32 falls downward into one group of crushing modules of the crushing assembly 6 through the guide plate 38. At this time, the waste residue storage assembly 3 transports the waste residue to the space between the second isolation plate 32 and the third isolation plate 37. After the waste residue is transported, the second motor 35 rotates to drive the third isolation plate 37 to rest on the baffle. The waste residue between the third isolation plate 37 and the second isolation plate 32 falls downward into another group of crushing modules in the crushing assembly 6 through the guide plate 38.

[0025] In an embodiment, Figure 6 As shown, the first baffle plate 41 has concave arc shapes on both sides, and crushing beads 40 are evenly arranged on both sides of the arc surface. The incompletely crushed waste residue collides and is crushed by the crushing beads 40 on the first baffle plate 41 as the crushing roller 45 rotates, and then is crushed by the two crushing rollers 45, thereby enhancing the effect of crushing the waste residue.

[0026] In an embodiment, Figure 7 As shown, a plurality of sieve holes 46 of preset sizes are arranged inside the sieve plate 43, and the crushed raw materials flow out through the sieve holes 46. The sieve holes 46 can control the outflow of waste residues of the corresponding sizes after crushing, and the residues that are not fully crushed continue to be crushed in the crushing assembly 6.

[0027] In an embodiment, Figure 6 As shown, a discharge pipe 44 is installed at the lower side of the crushing assembly 6 , and a discharge port 7 is arranged at the bottom of the discharge pipe 44 . The crushed waste residue automatically falls into the discharge pipe 44 and flows out through the discharge port 7 .

[0028] When the present invention is in use, dichlorobenzene enters the waste residue feeding assembly 2 through the feed hopper 1. In the initial state of the waste residue feeding assembly 2, the first elastic body 24 is stuck in the fourth groove 17, the second elastic body 21 is stuck in the second groove 19, and the third elastic body 27 is stuck in the fifth groove 20. After a certain weight of waste residue enters the space between the first partition 14 and the second partition 15, the weight of the waste residue causes the first elastic body 24 to break away from the fourth groove 17 and slide to the third groove 47, the second elastic body 21 breaks away from the second groove 19 and slides to the first groove 18, and the third elastic body 27 slides to the sixth groove 48. The waste residue is discharged from the first partition 14 and the second partition 15. A waste residue discharge channel 23 flows out from the first channel 22, and the waste residue in the feed hopper 1 enters the space between the second partition 15 and the third partition 16. When the waste residue in the space between the second partition 15 and the third partition 16 reaches a preset weight, the weight of the waste residue causes the third elastic body 27 to slide back into the fifth groove 20, and the first elastic body 24 and the second elastic body 21 slide back into the fourth groove 17 and the fifth groove 20 respectively, so that the waste residue flows out through the second waste residue discharge channel 26 and the second channel 25 on both sides, and during the discharge process, the partitions being discharged are kept airtight to prevent the gas generated by the discharge or the waste residue crushing from volatilizing. The air purifier 9 can absorb the gas volatilized by the waste slag in the dichloroaniline waste slag crushing treatment device or the gas generated by the waste slag crushing, and the waste slag falls into the waste slag storage space 30 from the bottom of both sides of the waste slag unloading component 2, so that the waste slag is evenly distributed in the waste slag storage space 30, and the output end of the waste slag storage space 30 is connected to the material distribution component 5 through the control of the electric telescopic plate 31. When the first isolation plate 34 in the powder component is placed on the third baffle plate 39, the waste slag between the first isolation plate 34 and the second isolation plate 32 falls downward through the guide plate 38 into one of the crushing modules in the crushing component 6. At this time, the waste slag storage component 3 moves to the first baffle plate 39. The waste slag is transported in the space between the second isolation plate 32 and the third isolation plate 37. After the waste slag is transported, the second motor 35 rotates to drive the third isolation plate 37 to rest on the third baffle plate 39. The waste slag between the third isolation plate 37 and the second isolation plate 32 falls downward through the guide plate 38 into another group of crushing modules in the crushing assembly 6. The crushing roller 45 in the crushing assembly 6 is used to crush the waste slag. The crushed waste slag flows out from the discharge pipe 44 and the discharge port 7 through the sieve plate 43. The incompletely crushed waste slag collides with the crushing beads 40 on the second baffle plate 42 as the crushing roller 45 rotates and is crushed again by the two crushing rollers 45, thereby improving the waste slag crushing effect.

[0029] Finally, it should be noted that the above is only a preferred example of the present invention and is not intended to limit the present invention. Although the present invention has been described in detail with reference to the aforementioned embodiments, it is still possible for those skilled in the art to modify the technical solutions described in the aforementioned embodiments, or to make equivalent substitutions for some of the technical features therein. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. A dichloroaniline waste residue crushing treatment device, characterized in that: include: A box body, a feed hopper is installed on the upper side of the box body, and the dichloroaniline waste residue enters the box body from the feed hopper; A support seat, the bottom end of the box body is equipped with the support seat; A waste residue unloading component, the waste residue unloading component is installed in the box body, the waste residue unloading component includes three groups of partitions, a rotating shaft and a slide groove, the three groups of partitions include a first partition, a second partition and a third partition, one end of each group of partitions is connected by the rotating shaft, two groups of slide bars are respectively arranged on one side of the first partition and the third partition, circular slide grooves are respectively installed on both sides of the box body, the slide bars slide on the surface of the slide groove, a first waste residue unloading channel is arranged at the lower part of the slide bar on the first partition, a second waste residue unloading channel is arranged at the lower part of the slide bar on the third partition, a first channel and a second channel are respectively arranged at the lower part of both sides of the slide groove, as the slide bar slides on the surface of the slide groove, the first waste residue unloading channel is aligned with the first channel, and the second waste residue unloading channel is aligned with the second channel; A crushing assembly, wherein the crushing assembly is connected to the output end of the waste residue feeding assembly, the crushing assembly comprises two groups of crushing modules, a first baffle is arranged between the two groups of the crushing modules, the crushing module comprises two crushing rollers, a second baffle, a screen plate and crushing beads, the second baffle is circular and installed on the inner surface of the box body, the crushing beads are evenly installed on the surface of the second baffle, the crushing blades of the two crushing rollers are meshed with each other and the two crushing rollers rotate in opposite directions, the two crushing rollers rotating in opposite directions are used to crush the waste residue, the crushed waste residue passes through the screen plate, and the incompletely crushed waste residue collides and is crushed by the crushing beads on the second baffle as the crushing roller rotates, and then is crushed by the two crushing rollers.

2. The device for crushing and treating dichloroaniline waste residue according to claim 1, characterized in that: An elastomer is installed at one end of each partition, a first elastomer is installed at one end of the first partition, a second elastomer is installed at one end of the second partition, and a third elastomer is installed at one end of the third partition. A first groove and a second groove are arranged at the bottom of the feed hopper, and a third groove and a fifth groove are arranged at the lowest ends of the inner surfaces on both sides of the slide respectively. A fourth groove and a sixth groove are arranged at positions on both sides of the slide at a certain arc length away from the third groove and the fifth groove on both sides. The arc length between the first groove and the second groove is equal to the arc length between the third groove and the fourth groove, and is equal to the arc length between the fifth groove and the sixth groove.

3. The device for crushing and treating dichloroaniline waste residue according to claim 1, characterized in that: An air purification component is installed on the surface of the slide groove, and the air purification component includes an air purifier and an air intake fan. The air intake fan is installed on the surface of the slide groove, and the air purifier is connected to the air intake fan. The air intake fan is used to suck the gas volatilized from the waste residue between the partitions into the air purifier.

4. The device for crushing and treating dichloroaniline waste residue according to claim 1, characterized in that: A waste storage assembly is installed between the waste discharge assembly and the crushing assembly, and the waste storage assembly includes two groups of mutually symmetrical electric telescopic plates, and the electric telescopic plates include a first motor, a sleeve and a telescopic plate. The first motor is used to drive the telescopic plate to extend and retract in the sleeve. The space between the electric telescopic plate and the waste discharge assembly constitutes a waste storage space, and waste falls into the waste storage space from the bottom of both sides of the waste discharge assembly respectively.

5. The device for crushing and treating dichloroaniline waste residue according to claim 4, characterized in that: A material distribution component is installed below the waste residue storage component, and the material distribution component includes a first isolation plate, a second isolation plate, a third isolation plate, a second motor, two groups of weight sensors and a rotating block. The rotating block is a triangular prism, and the side of the rotating block is an isosceles right triangle. The rotating block is placed directly below the two groups of the electric telescopic plates. The second motor is installed at the center of the rotating block to drive the rotating block to rotate. The two groups of weight sensors are respectively installed on one side of the right-angled side of the rotating block. The first isolation plate, the second isolation plate and the third isolation plate are respectively installed on the edges of the rotating block at an angle of 90 degrees to each other. The weight sensor is used to control the rotation of the second motor when the preset weight is reached.

6. The device for crushing and treating dichloroaniline waste residue according to claim 5, characterized in that: A first baffle is arranged below the material dividing assembly, and a third baffle is arranged below the material dividing assembly. After the second motor drives the rotating block to rotate, the two ends of the first isolation plate and the third isolation plate are respectively placed on the two ends of the third baffle. Guide plates are respectively arranged on both sides of the inner surface of the box body, and the guide plates are connected to the output end of the material dividing assembly. The guide plates are used to guide the waste slag to the center position of the two groups of crushing rollers.

7. The device for crushing and treating dichloroaniline waste residue according to claim 1, characterized in that: Both sides of the first baffle are concave arc-shaped, and crushing beads are evenly arranged on both sides of the arc-shaped surface.

8. The device for crushing and treating dichloroaniline waste residue according to claim 1, characterized in that: The sieve plate is provided with a plurality of sieve holes of preset sizes inside, and the crushed raw materials flow out through the sieve holes.

9. The device for crushing and treating dichloroaniline waste residue according to claim 1, characterized in that: A discharge pipe is installed at the lower side of the pulverizing assembly, and a discharge port is arranged at the bottom end of the discharge pipe.

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