A carbon nanotube dry granulation device

Abstract

The present application belongs to the technical field of granulating device, and particularly relates to a carbon nanotube dry granulating device, which comprises a machine body, a feeding mechanism arranged at the upper port of the machine body, a cutting and guiding mechanism arranged between a rolling mechanism and a whole-grain mechanism, a guiding square cylinder fixedly connected below two supporting guide plates, a guiding cavity formed in the guiding square cylinder, wherein the upper port of the guiding cavity is located below the symmetrical rollers, a triangular distributing block is fixedly arranged in the lower port of the guiding square cylinder, a discharging cavity is formed between the two side slopes of the triangular distributing block and the side wall of the guiding cavity, at least two sliding grooves are formed in the left side wall of the guiding square cylinder and communicate with the guiding cavity, a sliding plate is slidingly arranged in each sliding groove, and a cutting knife is arranged on the right end surface of each sliding plate. The present application can improve the effect of the whole-grain mechanism on rolling and pressing the small pieces after cutting into granules, thereby improving the efficiency of processing and forming of the carbon nanotube in the dry granulating device.

Description

TECHNICAL FIELD

[0001] The application belongs to the technical field of granulating devices, in particular to a carbon nanotube dry granulating device. BACKGROUND

[0002] Carbon nanotubes exhibit insulating, conductive or semiconductive properties according to their inherent characteristics, carbon nanotubes have a structure of carbon atoms bonded to each other with strong covalence, with this structure, carbon nanotubes have a tensile strength about 100 times higher than steel, and are highly flexible and elastic, and chemically stable, carbon nanotubes are important in the manufacture of composite materials due to their size and specific physical properties.

[0003] When using a dry granulating device to dry granulate carbon nanotubes, the existing dry granulating device is mostly first sent into the rolling mechanism through the feeding mechanism, and then the powder is rolled into a sheet material, and then the sheet material is broken by the breaking roller in the breaking and granulating mechanism, and then the granulating roller below is used for granulating treatment, and since the sheet material is directly broken by the rotating breaking roller, some small particles or fine powder will inevitably appear after breaking, which cannot be granulated by the granulating roller, and the sheet material after breaking will also fall and hit the granulating roller, thereby also producing small particles or fine powder, and the small particles or fine powder produced need to be returned to the feeding mechanism by the return mechanism for re-rolling treatment, thereby reducing the preparation efficiency of carbon nanotube particles. SUMMARY

[0004] To solve the above technical problems, the application is realized by the following technical scheme:

[0005] The application is a carbon nanotube dry granulating device, which comprises a machine body, a feeding mechanism is arranged at the upper port of the machine body, a rolling mechanism, a granulating mechanism and a screening and discharging mechanism are arranged in the machine body from top to bottom, a cutting and guiding mechanism is arranged between the rolling mechanism and the granulating mechanism, the cutting and guiding mechanism is used to cut the sheet material rolled by the rolling mechanism, and the cut material is uniformly guided into the granulating mechanism for granulating treatment.

[0006] Further, the cutting guide mechanism comprises support guide plates, a guide square cylinder, a triangular distribution block, sliding plates, cutting knives, connecting vertical plates and hydraulic cylinders; two support guide plates are fixedly arranged below two symmetrical rollers of the rolling mechanism, and a guide square cylinder is fixedly connected below the two support guide plates; a guide cavity is formed in the guide square cylinder, and the upper port of the guide cavity is below the symmetrical rollers; a triangular distribution block is fixedly arranged in the lower port of the guide square cylinder; a discharge cavity is formed between the two side slopes of the triangular distribution block and the side wall of the guide cavity; a grain sorting mechanism is arranged at the lower cavity port of each discharge cavity; at least two sliding grooves are formed in the left side wall of the guide square cylinder and communicate with the guide cavity; a sliding plate is slidingly arranged in each sliding groove; a cutting knife is arranged on the right end surface of each sliding plate; the left end surfaces of the at least two sliding plates are connected through a connecting vertical plate; and the hydraulic cylinders are fixed on the left side wall of the machine body, and the piston rod end surfaces of the two hydraulic cylinders are connected to the connecting vertical plate.

[0007] Further, the upper corner of the triangular distribution block is arc-shaped, and a vibrating cavity is formed in the triangular distribution block; a vibrating assembly is arranged in the vibrating cavity, and the vibrating assembly is used for vibrating the two side slopes and the arc-shaped upper corner of the triangular distribution block.

[0008] Further, the telescopic vibrating assembly comprises a strip-shaped air bag, an air outlet pipe, a support shaft pipe, an air guide pipe, a fixed pipe, a sliding column and a vibrating block; the strip-shaped air bag is connected between the connecting vertical plate and the guide square cylinder, and the front end surface of the strip-shaped air bag is communicated with the air outlet pipe; the support shaft pipe is inserted into the vibrating cavity and communicated with the air outlet pipe through the air guide pipe; at least three groups of fixed pipes are circumferentially arranged on the outer circumferential surface of the support shaft pipe, and each group of fixed pipes is provided with a plurality of fixed pipes along the length direction of the support shaft pipe; a sliding column is slidingly inserted into each fixed pipe; a vibrating block is arranged on the outer end surface of each sliding column; and the at least three groups of vibrating blocks are respectively aligned with the two side slopes and the arc-shaped upper corner of the vibrating cavity.

[0009] Further, a hidden groove is formed in the outer side surface of the guide square cylinder and located between the two sliding plates; the air outlet pipe is made of an elastic rubber hose; the strip-shaped air bag is elliptical; the two side elliptical surfaces of the strip-shaped air bag are connected with the connecting vertical plate and the groove wall of the hidden groove; and the groove depth of the hidden groove is smaller than the thickness of the compressed strip-shaped air bag.

[0010] Further, the whole grain mechanism comprises a support block, a screen, a rotating shaft, a rotating sleeve, a connecting strip and an arc-shaped rolling plate, the support block is fixedly arranged on the lower surface of the triangular distributing block, the two side surfaces of the support block are fixedly provided with the screen, the rotating shaft is rotatably arranged above each screen, the rotating sleeve is sleeved on each rotating shaft, a plurality of connecting strips are circumferentially arranged on the outer ring surface of each rotating sleeve, the outer end surface of each connecting strip is connected with the arc-shaped rolling plate, and the arc surface of the screen connected with the support block is aligned with the cavity surface of the discharging cavity.

[0011] Further, an elastic material guiding film is arranged between two adjacent arc-shaped rolling plates, one end surface of the elastic material guiding film is connected to the outer ring surface of the previous arc-shaped rolling plate, and the other end surface of the elastic material guiding film is connected to the inner ring surface of the next arc-shaped rolling plate.

[0012] The present application has the following advantages:

[0013] The present application has the following advantages:

[0014] The present application has the following advantages:

[0015] Of course, implementing any product of the present application does not necessarily require all the advantages described above to be achieved at the same time. BRIEF DESCRIPTION OF DRAWINGS

[0016] In order to more clearly illustrate the technical solutions of the embodiments of the present application, the drawings needed for the description of the embodiments will be briefly introduced. Obviously, the drawings in the following description are only some embodiments of the present application, and for those skilled in the art, other drawings can be obtained without creative labor on the basis of these drawings.

[0017] Figure 1 It is a schematic diagram of the overall structure of the embodiment of the present disclosure.

[0018] Figure 2 It is a schematic diagram of the internal structure of the embodiment of the present disclosure.

[0019] Figure 3 It is a sectional view of the material guiding square cylinder of the embodiment of the present disclosure.

[0020] Figure 4 It is a schematic diagram of the overall structure of the embodiment of the present disclosure.

[0021] Figure 5 It is a schematic diagram of the overall structure of the embodiment of the present disclosure. Figure 3 It is a local enlarged view of A in the above figure.

[0022] In the figure: 1, machine body; 2, feeding mechanism; 3, sheet rolling mechanism; 4, cutting and guiding mechanism; 41, supporting guide plate; 42, material guiding square cylinder; 421, material guiding cavity; 422, material discharging cavity; 423, sliding groove; 424, hidden groove; 43, triangular material distributing block; 431, rapping cavity; 44, sliding plate; 45, cutting knife; 46, connecting vertical plate; 47, hydraulic cylinder; 5, rapping assembly; 51, strip-shaped air bag; 52, air outlet pipe; 53, supporting shaft pipe; 54, air guide pipe; 55, fixed pipe; 56, sliding column; 57, rapping block; 6, particle sizing mechanism; 61, supporting block; 62, screen mesh; 63, rotating shaft; 64, rotating sleeve; 65, connecting strip; 66, arc-shaped rolling plate; 7, material screening and discharging mechanism; 8, elastic material guiding film. Embodiment

[0023] The technical solutions of the embodiments of the present application will be described clearly and completely in the following with reference to the drawings in the embodiments of the present application. Obviously, the described embodiments are only some embodiments of the present application, and not all the embodiments. Based on the embodiments in the present application, all other embodiments obtained by those skilled in the art without creative labor are within the scope of protection of the present application.

[0024] Please refer to Figures 1-5As shown, the present application is a kind of carbon nanotube dry granulation device, including body 1, the feeding mechanism 2 is arranged on the upper end of the body 1, the body 1 is sequentially provided with rolling mechanism 3, whole grain mechanism 6 and sieve discharge mechanism 7 from top to bottom inside, cutting guide mechanism 4 is arranged between the rolling mechanism 3 and the whole grain mechanism 6, the cutting guide mechanism 4 is used to cut the sheet material rolled by the rolling mechanism 3, and the cut material is uniformly introduced into the whole grain mechanism 6 for granule processing;

[0025] In the scheme designed by the present application, the cutting guide mechanism 4 is arranged below the rolling mechanism 3 and above the whole grain mechanism 6, when the carbon nanotube powder is put into the feeding mechanism 2, the spiral conveying blade in the feeding mechanism 2 will convey the powder upward to the counter-rotating rollers in the rolling mechanism 3, the counter-rotating rollers will roll the powder into sheet material, and the sheet material will fall downward into the cutting guide mechanism 4, at this time the cutting guide mechanism 4 will cut the falling sheet material into small pieces, so that the sheet material can fall into the whole grain mechanism 6 in small pieces, thereby relative to directly crushing the sheet material, the rolling of the sheet material into small pieces will certainly reduce the generation of small particles or fine powder, and the cutting of the small pieces will continue to slide through the cutting guide mechanism 4 to the whole grain mechanism 6 for whole grain processing, rather than directly falling and impacting on the whole grain mechanism 6, thereby further reducing the probability of small particles or fine powder generated when the rolled sheet material is granulated, and the small pieces sliding into the whole grain mechanism 6 will be rolled into the required granular material, and the prepared granules will fall into the sieve discharge mechanism 7 below the body 1, the sieve discharge mechanism 7 will screen the qualified granular material, small particles and fine powder through the screening net, the granular material remaining on the screening net will be discharged and collected by the spiral conveying blade, and the small particles and fine powder will be circulated to the feeding mechanism 2 by the return mechanism for further rolling treatment.

[0026] As an embodiment of the present application, the cutting guide mechanism 4 comprises a support guide plate 41, a guide square cylinder 42, a triangular distribution block 43, a sliding plate 44, a cutting knife 45, a connecting vertical plate 46 and a hydraulic cylinder 47; two support guide plates 41 are fixedly arranged below two symmetrical rollers of the rolling mechanism 3, and a guide square cylinder 42 is fixedly connected below the two support guide plates 41; a guide cavity 421 is formed in the guide square cylinder 42, and the upper end of the guide cavity 421 is below the symmetrical rollers; a triangular distribution block 43 is fixedly arranged in the lower end of the guide square cylinder 42; a discharge cavity 422 is formed between the two side slopes of the triangular distribution block 43 and the side wall of the guide cavity 421; a grain sorting mechanism 6 is arranged below the two symmetrical discharge cavities 422; at least two sliding grooves 423 are formed in the left side wall of the guide square cylinder 42 and communicate with the guide cavity 421; a sliding plate 44 is slidingly arranged in each sliding groove 423; a cutting knife 45 is arranged on the right end surface of each sliding plate 44; the left end surfaces of at least two sliding plates 44 are connected by a connecting vertical plate 46; and the hydraulic cylinders 47 are fixed on the left side wall of the machine body 1, and the piston rod end surfaces of the two hydraulic cylinders 47 are connected to the connecting vertical plate 46.

[0027] In the scheme designed in the application, when the rotating rollers in the rolling mechanism 3 roll the powder material into a sheet material, the sheet material will fall into the guide cavity 421 in the guide square cylinder 42. When the sheet material falls to the position above the triangular distribution block 43 in the guide cavity 421, the control box on the machine body 1 controls the extension of the piston rod of the at least two hydraulic cylinders 47, which drives the upper and lower sliding plates 44 to slide into the sliding groove 423 through the connecting vertical plate 46. The sliding sliding plate 44 drives the cutting knife 45 provided on the right end face to slide into the guide cavity 421, and the at least two cutting knives 45 cut the sheet material in the guide cavity 421 into small pieces. When the piston rod of the hydraulic cylinder 47 is retracted into the hydraulic cylinder 47, the connecting vertical plate 46 drives the cutting knife 45 to retract into the slot of the sliding groove 423 through the sliding plate 44. The small pieces cut off slide along the discharge cavity 422 formed by the two side slopes of the triangular distribution block 43 to the whole grain mechanism 6 for rolling and whole grain processing. When the sliding plate 44 drives the cutting knife 45 to slide into the sliding groove 423, the continuously rolled sheet material will continue to fall to the position above the triangular distribution block 43 in the guide cavity 421, and then the piston rod of the hydraulic cylinder 47 continues to extend to cut the sheet material into small pieces by the cutting knife 45. Thus, the probability of small particles or fine powder formed in the breaking and cracking stage of the rolled sheet material is reduced, the effect of the whole grain mechanism 6 on the rolling of the small pieces is improved, and the efficiency of the carbon nanotube in the dry granulation device is improved.

[0028] As an embodiment of the application, the top corner of the triangular distribution block 43 is arc-shaped, and the triangular distribution block 43 is provided with a vibrating cavity 431 inside, and the vibrating cavity 431 is provided with a vibrating assembly 5. The vibrating assembly 5 is used for vibrating the two side slopes and the arc top corner of the triangular distribution block 43.

[0029] In the scheme designed in the application, in order to avoid the blockage of the small pieces on the top end face of the triangular distribution block 43, which causes the small pieces to not slide into the two side discharge cavities 422, the top corner of the triangular distribution block 43 is designed as an arc shape, which facilitates the smooth sliding of the small pieces into the two side guide cavities 421. The vibrating assembly 5 is arranged in the vibrating cavity 431, which vibrates the two side inclined walls and the arc top corner of the vibrating cavity 431, thereby preventing the blockage of the small pieces in the discharge cavity 422, and affecting the effect of the whole grain mechanism 6 on the rolling of the small pieces.

[0030] As an embodiment of the present application, the telescopic rapping assembly 5 comprises a strip-shaped air bag 51, an air outlet pipe 52, a support shaft pipe 53, a gas guide pipe 54, a fixed pipe 55, a sliding column 56 and a rapping block 57, the strip-shaped air bag 51 is connected between the connecting vertical plate 46 and the material guiding square cylinder 42, the front end surface of the strip-shaped air bag 51 is communicated with the air outlet pipe 52, the support shaft pipe 53 is inserted into the rapping cavity 431, the support shaft pipe 53 is communicated with the air outlet pipe 52 through the gas guide pipe 54, the outer circumferential surface of the support shaft pipe 53 is circumferentially and arrayed with at least three groups of fixed pipes 55, each group of fixed pipes 55 is provided with a plurality of fixed pipes 55 along the length direction of the support shaft pipe 53, the sliding column 56 is slidingly inserted into each fixed pipe 55, the outer end surface of each sliding column 56 is provided with the rapping block 57, and at least three groups of rapping blocks 57 are respectively aligned with the two side inclined surfaces and the circular arc top corner of the rapping cavity 431.

[0031] In the design scheme of the present application, when the piston rod of the at least two hydraulic cylinders 47 pushes the connecting vertical plate 46 to move to the side wall of the material guiding square cylinder 42, the connecting vertical plate 46 will squeeze the strip-shaped air bag 51, at this time, the strip-shaped air bag 51 will be compressed, the gas in the strip-shaped air bag 51 will enter the support shaft pipe 53 in the rapping cavity 431 through the air outlet pipe 52 and the gas guide pipe 54, the gas in the support shaft pipe 53 will enter the fixed pipe 55 and push the sliding column 56 to extend out of the fixed pipe 55, and the plurality of sliding columns 56 that extend out will drive the plurality of rapping blocks 57 to contact the inclined surfaces and the circular arc top surface of the rapping cavity 431, when the connecting vertical plate 46 moves away from the side of the material guiding square cylinder 42, the compressed strip-shaped air bag 51 will return to its original state, and the gas in the support shaft pipe 53 will be sucked back through the gas guide pipe 54 and the air outlet pipe 52, so that the plurality of sliding columns 56 slide into the fixed pipe 55, and the plurality of rapping blocks 57 can be separated from the side wall of the rapping cavity 431. Therefore, as the connecting vertical plate 46 continuously reciprocates on the left side of the material guiding square cylinder 42, the strip-shaped air bag 51 will be continuously compressed and restored, and the plurality of groups of rapping blocks 57 will continuously rap the two side inclined surfaces and the circular arc top surface of the rapping cavity 431, so that the two side inclined surfaces and the circular arc top surface of the triangular material distributing block 43 made of elastic metal material can vibrate at the lower cavity opening of the material guiding cavity 421, thereby reducing the risk of blockage of the small section pieces in the discharging cavity 422 after being cut off, and improving the efficiency of the whole particle mechanism 6 in crushing the small section pieces into particles.

[0032] As an embodiment of the present application, the outer side surface of the material guiding square cylinder 42 is provided with a hidden groove 424, the hidden groove 424 is located between the two sliding plates 44, the air outlet pipe 52 is made of elastic rubber hose, the strip-shaped air bag 51 is provided in an oval shape, the two oval surfaces of the strip-shaped air bag 51 are connected with the connecting vertical plate 46 and the groove wall of the hidden groove 424, and the groove depth of the hidden groove 424 is smaller than the thickness of the compressed strip-shaped air bag 51.

[0033] In the technical scheme designed in the application, when the connecting vertical plate 46 slides to the left side of the material guiding square cylinder 42, the connecting vertical plate 46 will compress the strip-shaped air bag 51 at this time, and the strip-shaped air bag 51 will be compressed into the hidden groove 424, preventing the thickness of the strip-shaped air bag 51 after being compressed from interfering with the cutting knife 45 sliding into the material guiding cavity 421, and at the same time, the depth of the hidden groove 424 is less than the thickness of the strip-shaped air bag 51 after being compressed, so that the strip-shaped air bag 51 after being compressed can provide sufficient air pressure to the supporting shaft pipe 53, and at the same time, the strip-shaped air bag 51 can play a buffering role for the sliding connecting vertical plate 46, preventing the connecting vertical plate 46 from frequently reciprocating and colliding with the side wall of the material guiding square cylinder 42, and also preventing the cutting edge of the cutting knife 45 from colliding with the right side wall of the material guiding cavity 421 after cutting the sheet material, thereby easily causing damage to the cutting knife 45.

[0034] As an embodiment of the application, the whole particle mechanism 6 comprises a supporting block 61, a screen 62, a rotating shaft 63, a rotating sleeve 64, a connecting strip 65 and an arc-shaped rolling plate 66, the supporting block 61 is fixedly arranged on the lower surface of the triangular material distributing block 43, and the two side surfaces of the supporting block 61 are fixedly arranged with the screen 62, the rotating shaft 63 is rotatably arranged above each screen 62, the rotating sleeve 64 is sleeved on each rotating shaft 63, a plurality of connecting strips 65 are circumferentially arranged on the outer ring surface of each rotating sleeve 64, and the outer end surface of each connecting strip 65 is connected with the arc-shaped rolling plate 66, and the arc surface of the screen 62 connected with the supporting block 61 is aligned with the cavity surface of the material discharging cavity 422.

[0035] In the scheme designed in the application, when the small piece slides along the material discharging cavity 422 and into the wall surface of the screen 62, the rotating shaft 63 will drive the plurality of connecting strips 65 to rotate through the rotating sleeve 64, so that the plurality of arc-shaped rolling plates 66 can rotate in the screen 62, when the arc-shaped rolling plate 66 contacts the small piece sliding to the wall surface of the screen 62, the rotating arc-shaped rolling plate 66 will drive the small piece to slide on the arc surface of the screen 62 while extruding the small piece, so that the small piece is crushed into a granular shape by the screen 62 and falls into the screening discharging mechanism 7, thereby the small piece slides along the material discharging cavity 422 and falls onto the side wall surface of the screen 62, thereby the content of small particles or fine powder generated by the falling and collision between the sheet materials crushed by the crushing device on the arc-shaped rolling plate 66 can be reduced, so that the yield of the granular product obtained by the whole particle mechanism 6 from the rolled sheet materials can be improved.

[0036] As one embodiment of the present application, the elastic material guiding film 8 is arranged between two adjacent arc-shaped rolling plates 66, one end surface of the elastic material guiding film 8 is connected to the outer surface of the previous arc-shaped rolling plate 66, and the other end surface is connected to the inner surface of the next arc-shaped rolling plate 66; in the design scheme of the present application, when the small piece body slides and falls to the side surface of the screen 62, in order to further reduce the small piece body inserted between two adjacent arc-shaped rolling plates 66 and unable to be rolled and formed into particles, therefore, the present application is arranged with the elastic material guiding film 8 between two arc-shaped rolling plates 66, and one end surface of the elastic material guiding film 8 is connected to the outer surface of the previous arc-shaped rolling plate 66 in the clockwise direction, that is, the arc-shaped rolling plate 66 is just rotated below the discharging cavity 422 and close to the inner arc surface of the screen 62, at this time, the small piece body will slide and fall to the elastic material guiding film 8, and the elastic material guiding film 8 will block the falling small piece body, and at the same time, the small piece body can be guided into the gap between the arc-shaped rolling plate 66 and the screen 62, thereby facilitating multiple arc-shaped rolling plates 66 to improve the yield and quality of the carbon nanotube particles.

[0037] Working principle:

[0038] When the carbon nanotube powder is put into the feeding mechanism 2, the spiral conveying blade in the feeding mechanism 2 will convey the powder upward to the counter-rotating rollers in the rolling mechanism 3, and the counter-rotating rollers will roll and press the powder into a sheet material, and the sheet material will fall into the guide cavity 421 formed in the guide square cylinder 42, and when the sheet material falls to the position above the triangular distribution block 43 in the guide cavity 421, at this time, the control box on the machine body 1 controls the piston rod of the at least two hydraulic cylinders 47 to extend, so that it drives the upper and lower sliding plates 44 to slide into the sliding groove 423 through the connecting vertical plate 46, and the sliding sliding plate 44 will drive the cutting knife 45 arranged on the right end face to slide into the guide cavity 421, and then the at least two cutting knives 45 will cut the sheet material in the guide cavity 421 into small pieces, and when the piston rod of the hydraulic cylinder 47 is retracted into the hydraulic cylinder 47, the connecting vertical plate 46 will drive the cutting knife 45 to retract into the slot of the sliding groove 423 through the sliding plate 44, and the small pieces cut off will slide down the discharge cavity 422 formed on the two side slopes of the triangular distribution block 43 to the whole grain mechanism 6 for rolling and whole grain processing, at this time, the rotating shaft 63 will drive the plurality of connecting strips 65 to rotate through the rotating sleeve 64, and then the plurality of arc-shaped rolling plates 66 can rotate in the screen 62, when the arc-shaped rolling plate 66 contacts with the small pieces sliding to the wall surface of the screen 62, the rotating arc-shaped rolling plate 66 will drive the small pieces to slide on the arc surface of the screen 62 while extruding the small pieces, and then the small pieces will be extruded into granular by the screen 62 and fall into the screen discharge mechanism 7, the screen discharge mechanism 7 will screen the qualified granular material, smaller particles and fine powder through the screening net, the granular material remaining on the screening net will be discharged and collected by the spiral conveying blade, and the smaller particles and fine powder will be circulated to the feeding mechanism 2 through the return mechanism for further rolling treatment.

[0039] The preferred embodiments disclosed above are only used to help explain the present application. The preferred embodiments do not describe all the details and limit the application to the specific embodiments described. Obviously, many modifications and variations can be made according to the content of the present application. The present application selects and describes these embodiments in order to better explain the principles and practical applications of the present application, so that those skilled in the art can well understand and utilize the present application. The present application is limited by the claims and their entire scope and equivalents.

Claims

1. A carbon nanotube dry granulation device comprising a machine body (1), characterized in that, The machine body (1) is provided with a feeding mechanism (2) at the upper end, the inside of the machine body (1) is sequentially provided with a rolling mechanism (3), a particle sizing mechanism (6) and a screening and discharging mechanism (7) from top to bottom, a cutting and guiding mechanism (4) is arranged between the rolling mechanism (3) and the particle sizing mechanism (6), the cutting and guiding mechanism (4) is used for cutting the sheet material rolled by the rolling mechanism (3) and uniformly guiding the cut material into the particle sizing mechanism (6) for particle processing; The cutting and guiding mechanism (4) comprises support guide plates (41), a guiding square cylinder (42), a triangular material distributing block (43), sliding plates (44), cutting knives (45), connecting vertical plates (46) and hydraulic cylinders (47); two support guide plates (41) are fixedly arranged below two sides of two symmetrical rollers of the rolling mechanism (3), and a guiding square cylinder (42) is fixedly connected below the two support guide plates (41); a material guiding cavity (421) is formed in the guiding square cylinder (42), and the upper end of the material guiding cavity (421) is below the symmetrical rollers; the triangular material distributing block (43) is fixedly arranged in the lower end of the guiding square cylinder (42); a material discharging cavity (422) is formed between the two side slopes of the triangular material distributing block (43) and the side wall of the material guiding cavity (421); the lower cavity of the two symmetrical material discharging cavities (422) is provided with the particle sizing mechanism (6); at least two sliding grooves (423) are formed in the left side wall of the guiding square cylinder (42) and communicate with the material guiding cavity (421); the sliding plate (44) is slidably arranged in each sliding groove (423); the cutting knife (45) is arranged on the right end surface of each sliding plate (44); the left end surfaces of the at least two sliding plates (44) are connected through the connecting vertical plate (46); the hydraulic cylinder (47) is fixed on the left side wall of the machine body (1), and the piston rod end surface of the two hydraulic cylinders (47) is connected to the connecting vertical plate (46); The top corner of the triangular material distributing block (43) is arc-shaped, a vibrating cavity (431) is formed in the triangular material distributing block (43), and the vibrating assembly (5) is arranged in the vibrating cavity (431); the vibrating assembly (5) is used for vibrating the two side slopes and the arc top corner of the triangular material distributing block (43); The rapping assembly (5) comprises a strip-shaped air bag (51), an air outlet pipe (52), a support shaft pipe (53), a gas guide pipe (54), a fixing pipe (55), a sliding column (56) and a rapping block (57), the strip-shaped air bag (51) is connected between the connecting vertical plate (46) and the material guiding square cylinder (42), and the front end surface of the strip-shaped air bag (51) is communicated with the air outlet pipe (52), the support shaft pipe (53) is inserted into the rapping cavity (431), and the support shaft pipe (53) is communicated with the air outlet pipe (52) through the gas guide pipe (54), the outer circumferential surface of the support shaft pipe (53) is communicated with at least three groups of fixing pipes (55), and each group of fixing pipes (55) is provided with a plurality of fixing pipes (55) along the length direction of the support shaft pipe (53), the sliding column (56) is slidingly inserted into each fixing pipe (55), the outer end surface of each sliding column (56) is provided with the rapping block (57), and at least three groups of rapping blocks (57) are aligned with the two side inclined surfaces and the circular arc top corner of the rapping cavity (431) respectively.

2. The carbon nanotube dry granulation device according to claim 1, wherein The outer side surface of the material guiding square cylinder (42) is provided with a hidden groove (424), and the hidden groove (424) is located between the two sliding plates (44), the air outlet pipe (52) is made of an elastic rubber hose, the strip-shaped air bag (51) is provided in an elliptical shape, and the two elliptical surfaces of the strip-shaped air bag (51) are connected with the connecting vertical plate (46) and the groove wall of the hidden groove (424) respectively, and the groove depth of the hidden groove (424) is smaller than the thickness of the strip-shaped air bag (51) after compression.

3. The carbon nanotube dry granulation device of claim 1, wherein, The whole particle mechanism (6) comprises a support block (61), a screen mesh (62), a rotating shaft (63), a rotating sleeve (64), a connecting strip (65) and an arc-shaped rolling plate (66), the support block (61) is fixedly arranged on the lower surface of the triangular material distributing block (43), and the two side surfaces of the support block (61) are fixedly provided with the screen mesh (62), the rotating shaft (63) is rotatably arranged above each screen mesh (62), the rotating sleeve (64) is sleeved on each rotating shaft (63), a plurality of connecting strips (65) are arranged on the outer circumferential surface of each rotating sleeve (64) in a circumferential array, and the arc-shaped rolling plate (66) is connected to the outer end surface of each connecting strip (65), and the curved surface, at which the screen mesh (62) is connected with the support block (61), is aligned with the cavity surface of the discharging cavity (422).

4. The carbon nanotube dry granulation device according to claim 3, wherein The elastic material guiding film (8) is arranged between adjacent two arc-shaped rolling plates (66), one end surface of the elastic material guiding film (8) is connected to the outer circumferential surface of the front arc-shaped rolling plate (66), and the other end surface thereof is connected to the inner circumferential surface of the rear arc-shaped rolling plate (66).

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