A high-pressure airflow collision device for producing graphene

Abstract

The present invention relates to the technical field of graphene preparation, and in particular to a high-pressure airflow collision device for producing graphene, comprising a tank body, a collision stripping auxiliary component and a stripping temporary storage component; mainly, on the one hand, collision injection pipes are symmetrically arranged on the side wall of the tank body, and the airflow injected by the symmetrically arranged collision injection pipes forms a convection collision, which has a better stripping effect on the graphene material; further, a collision stripping auxiliary component is arranged at the pipe mouth of the collision injection pipe, so that the airflow collision range is increased, which has a better convection collision effect and has a positive effect on improving the stripping efficiency of the graphene material; on the other hand, a bottom discharge auxiliary mechanism is arranged at the bottom discharge port position of the tank body, which can cooperate with the collision stripping auxiliary component, that is, the coarse material dropped by the stripping can be temporarily stopped, and the collision stripping is performed by the airflow, so as to improve the stripping efficiency of the graphene material.

Description

Technical Field

[0001] The invention relates to the technical field of graphene preparation, in particular to a high-pressure airflow collision device for producing graphene. Background Art

[0002] The existing document with announcement number CN106564885A discloses a jet device and method for continuously preparing graphene. The scheme mixes graphite raw material and medium solution, which is accelerated and ejected through the main nozzle. The material is collided and peeled off in the high-speed airflow ejected from the uniformly distributed converging nozzle to obtain a mixed slurry. Finally, the mixed slurry is pumped into the spray drying chamber through an ultra-high pressure pump, and the graphene material is obtained by drying, and the graphene is collected by a collecting mechanism. The method has low energy consumption, improves the efficiency of graphene stripping, uses air flow and liquid flow to strip graphite, and does not introduce grinding medium pollution. Then, it passes through a homogenizing valve with a small gap at a very high speed, and the strong shear force and friction force generated thereby homogenize and strip the material. Shearing and screening are further performed through the homogenizing valve to improve the stripping efficiency of graphene.

[0003] The above scheme adopts air flow and liquid flow to strip graphite slurry, while in the graphene production process, the stripping process of graphite solid materials generally only adopts air flow stripping, that is, the introduced graphite solid material is generally stripped by inputting high-pressure air flow, and the stripped material is graded and screened; the existing air flow stripping processing equipment generally sets the material inlet at the top of the air flow injection port, and the material is stripped by high-pressure gas during the falling process, and the fine material is discharged from the top and the coarse material is discharged from the bottom. The collision contact between the ejected gas and the material is not sufficient. The existing solution is generally to set multiple groups of air flow injection ports, and the effect is still not ideal. For the material falling from top to bottom, it will only have a better stripping effect when it reaches the injection port position. However, this process may cause the material to be discharged from the material discharge port at the bottom before it has time to be stripped. Therefore, further improvement and optimization are needed.

[0004] To this end, the present invention proposes a high-pressure airflow collision device for producing graphene to solve the above-mentioned problems. Summary of the invention

[0005] The object of the present invention is to provide a high-pressure airflow collision device for producing graphene to solve the problems raised in the above-mentioned background technology.

[0006] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: a high-pressure airflow collision device for producing graphene, comprising a tank body, a collision peeling auxiliary component and a peeling temporary storage component;

[0007] The bottom end of the tank body is fixedly arranged on the support plate frame, and a bottom discharge port is arranged at the bottom end of the tank body, the bottom discharge port is connected to the support plate frame, and a sealing cover is arranged on the top of the tank body;

[0008] The sealing cover is provided with a suction discharge pipe;

[0009] The side wall of the tank body is connected with a feeding mechanism, and the sides of the tank body are symmetrically provided with collision spray pipes;

[0010] The collision stripping auxiliary component is arranged in the inner cavity of the tank body, the stripping temporary storage component is arranged in the bottom discharge auxiliary mechanism, and the bottom discharge auxiliary mechanism is arranged at the bottom side of the bottom discharge port.

[0011] Preferably, the suction discharge pipe is connected to a collision stripping filter cartridge, and the collision stripping filter cartridge is arranged in the inner cavity of the tank body.

[0012] Preferably, one end of the collision jet pipe extends into the inner cavity of the tank body, and a first butt sealing disk is provided at the end, and the first butt sealing disk is connected to the collision stripping auxiliary component.

[0013] Preferably, the collision stripping auxiliary component includes an annular conduit, a connecting pipe, a second docking sealing disk, an injection hole and a conical tube head; the connecting pipe is symmetrically arranged on the outer ring edge of the annular conduit, and a second docking sealing disk is fixedly arranged at one end of the connecting pipe, and the second docking sealing disk is firmly connected to the first docking sealing disk by screws.

[0014] Preferably, the inner side ring edge of the annular conduit is equidistantly provided with injection holes, and the conical tube heads are equidistantly provided on the upper and lower side ring edges of the annular conduit.

[0015] Preferably, the injection holes are equidistantly arranged in a ring shape on the inner side edge of the annular conduit; the conical tube head is also equidistantly arranged in a ring shape on the upper and lower side edges of the annular conduit, and the conical tube head is inclined, and the large port of the conical tube head is connected to the annular conduit.

[0016] Preferably, the bottom discharging auxiliary mechanism includes a first carrying plate cover, a fixed side, a rotation control motor, a connecting shaft, a connecting rod, a loading movable plate, a accommodating cavity, a fixing ring, a discharge pipe and a stripping temporary storage component; a fixed side is fixedly provided on the outer side of the cover opening of the first carrying plate cover, and a rotation control motor is fixedly provided on the first carrying plate cover, a connecting shaft is provided at one end of the rotation control motor, and the connecting shaft extends to the inner cavity of the first carrying plate cover, and a connecting rod is fixedly provided at an outer side wall of the connecting shaft at equal distances, and the other end of the connecting rod is fixedly provided on the side wall of the loading movable plate, the loading movable plate is arranged in the inner cavity of the first carrying plate cover, a discharge cavity is arranged on the bottom side of the first carrying plate cover, a fixing ring is provided at one end of the discharge pipe, the fixing ring is fixed to the bottom side of the first carrying plate cover by screws, and is arranged at the cavity opening position of the discharge cavity, and the accommodating cavity also corresponds to the setting position of the discharge cavity.

[0017] Preferably, the loading movable disk is equidistantly provided with accommodating cavities, and the accommodating cavities correspond to the setting position of the bottom discharge port at the bottom end of the tank body; and four accommodating cavities are provided in the loading movable disk; a temporary storage assembly for peeling is provided in the accommodating cavity; the temporary storage assembly for peeling comprises a loading ring body, a placing groove body, a limiting card slot, a bearing block body, a limiting block piece, an auxiliary spring, a movable auxiliary block strip, an auxiliary slope and an auxiliary discharge structure; the loading ring body is placed in the accommodating cavity, and one loading ring body is placed in a accommodating cavity, the side walls of the loading ring body are equidistantly provided with placing groove bodies, and the outer side wall slot positions of the placing groove bodies are provided with limiting card slots, one end of the bearing block body is fixedly provided with a limiting block piece, the other end of the bearing block body is fixedly provided with an auxiliary spring, and the other end of the auxiliary spring is fixedly provided with a movable auxiliary block strip; the cavity opening of the discharge cavity is set to be circular, and the cavity opening diameter of the discharge cavity is set to be equal to the inner diameter of the ring opening of the loading ring body.

[0018] Preferably, the limit baffle and the limit slot are set in corresponding positions and the same number of groups, and the two are adapted to be connected; the movable auxiliary baffle and the placement slot are set in the same number of groups, that is, one movable auxiliary baffle is placed in a placement slot; an auxiliary slope is provided at one end of the movable auxiliary baffle.

[0019] Preferably, the auxiliary structure for discharging materials is arranged on the supporting plate frame, and the auxiliary structure for discharging materials includes a second supporting plate cover, a connecting side plate, an electrically-controlled telescopic rod, a connecting plate and a pushing plate body; a connecting side plate is fixedly arranged on the outer side of the cover opening of the second supporting plate cover, and the connecting side plate is fixed to the supporting plate frame by screws, and the second supporting plate cover and the first supporting plate cover are connected and arranged, and an electrically-controlled telescopic rod is fixedly arranged on the second supporting plate cover, and the bottom end of the electrically-controlled telescopic rod extends into the inner cavity of the second supporting plate cover, and a connecting plate is fixedly arranged on the end, and the connecting plate and the pushing plate body are fixed by screws, and the pushing plate body is arranged in the second supporting plate cover, and the pushing plate body is provided with one; the pushing plate body corresponds to the setting position of the accommodating cavity in the loading movable plate.

[0020] Compared with the prior art, the present invention has the following beneficial effects:

[0021] The high-pressure airflow collision device designed in the present invention mainly has the following features: on the one hand, collision jet pipes are symmetrically arranged on the side wall of the tank body, and the airflow jetted by the symmetrically arranged collision jet pipes forms a convection collision, which has a better stripping effect on the graphene material; secondly, a collision stripping auxiliary component is arranged at the pipe mouth of the collision jet pipe, so as to increase the airflow collision range, have a better convection collision effect, and have a positive effect on improving the stripping efficiency of the graphene material; on the other hand, a bottom discharge auxiliary mechanism is arranged at the bottom discharge port of the tank body, which can cooperate with the collision stripping auxiliary component, that is, the coarse material that falls for stripping can be temporarily stopped and subjected to collision stripping by the airflow, thereby improving the stripping efficiency of the graphene material. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 A top view of the structure connection of the high-pressure airflow collision device for producing graphene according to the present invention;

[0023] Figure 2 This is a bottom view of the structure connection of the high-pressure airflow collision device for producing graphene according to the present invention;

[0024] Figure 3 It is a partial schematic diagram of the internal structure connection of the high-pressure airflow collision device of the present invention;

[0025] Figure 4 For the present invention Figure 3 A magnified schematic diagram of the structural connection at center A;

[0026] Figure 5 It is a schematic diagram of the connection of the annular conduit structure in the collision and stripping auxiliary assembly of the present invention;

[0027] Figure 6 This is a schematic diagram of the outer side of the bottom discharge auxiliary mechanism structure connection of the present invention;

[0028] Figure 7 This is a schematic diagram of the inner side of the bottom discharge auxiliary mechanism structure connection of the present invention;

[0029] Figure 8 It is a schematic diagram of the connection of the loading ring structure in the temporary storage assembly for stripping of the present invention;

[0030] Fig. 9 For the present invention Figure 8 A magnified schematic diagram of the structural connection at B in the middle;

[0031] Fig.10 This is a bottom view of the connection of the discharging auxiliary structure of the present invention;

[0032] Fig.11 This is a top view of the auxiliary structure for discharging of the present invention.

[0033] In the figure: tank body 1, sealing cover 11, suction discharge pipe 12, feeding mechanism 13, bottom discharge port 14, collision stripping filter cartridge 2, collision injection pipe 3, first docking sealing disk 31, annular conduit 401, connecting pipe 402, second docking sealing disk 403, injection hole 404, cone pipe head 405, first bearing plate cover 501, fixed side 502, rotation control motor 503, connecting shaft 504, connecting rod 505, loading movable plate 506, accommodating cavity 507, fixing ring 508, discharge pipe 509, loading ring body 601, placement trough body 602, limiting card slot 603, bearing block body 604, limiting baffle 605, auxiliary spring 606, movable auxiliary baffle 607, auxiliary slope 608, second bearing plate cover 701, connecting side plate 702, electric control telescopic rod 703, connecting plate 704, pushing plate body 705. DETAILED DESCRIPTION

[0034] The technical solutions in the embodiments of the present invention are described clearly and completely below. The embodiments of the present invention and all other embodiments obtained by ordinary technicians in the field without creative work are within the scope of protection of the present invention.

[0035] Example 1: Please refer to Figure 1-Figure 11 A high-pressure airflow collision device for producing graphene includes a tank body 1, a collision stripping auxiliary component and a stripping temporary storage component; wherein the bottom end of the tank body 1 is fixedly arranged on a support plate frame, and a bottom discharge port 14 is arranged at the bottom end of the tank body 1, and the bottom discharge port 14 is connected to the support plate frame, and a cover 11 is arranged on the top of the tank body 1; a suction discharge pipe 12 is arranged on the cover 11; a feeding mechanism 13 is connected to the side wall of the tank body 1, and a collision injection pipe 3 is symmetrically arranged on the side of the tank body 1; the material is fed into the inner cavity of the tank body 1 from the feeding mechanism 13, and then the high-pressure gas ejected by the symmetrically arranged collision injection pipe 3 is subjected to convection collision stripping screening.

[0036] The collision stripping auxiliary component here is arranged in the inner cavity of the tank body 1, and the stripping temporary storage component is arranged in the bottom discharge auxiliary mechanism, and the bottom discharge auxiliary mechanism is arranged on the bottom side of the bottom discharge port 14; the suction discharge pipe 12 here is connected to the collision stripping filter cartridge 2, and the collision stripping filter cartridge 2 is arranged in the inner cavity of the tank body 1; here, one end of the collision injection pipe 3 extends into the inner cavity of the tank body 1, and a first docking sealing disk 31 is arranged at the end, and the first docking sealing disk 31 is connected to the collision stripping auxiliary component; the stripped fine material enters the collision stripping filter cartridge 2, and then is discharged through the suction discharge pipe 12, and the coarse material filtered by the collision stripping filter cartridge 2 is discharged from the bottom discharge port 14.

[0037] On the one hand, the present invention symmetrically arranges collision injection pipes 3 on the side wall of the tank body 1, and the airflow injected by the symmetrically arranged collision injection pipes 3 forms a convection collision, which has a better stripping effect on the graphene material; secondly, by arranging a collision stripping auxiliary component at the pipe mouth of the collision injection pipe 3, the airflow collision range is increased, which has a better convection collision effect and has a positive effect on improving the stripping efficiency of the graphene material; on the other hand, a bottom discharge auxiliary mechanism is arranged at the bottom discharge port 14 of the tank body 1, which can cooperate with the collision stripping auxiliary component, that is, the coarse material that falls for stripping can be temporarily stopped and subjected to collision stripping by the airflow, thereby improving the stripping efficiency of the graphene material.

[0038] Example 2: Based on Example 1, please refer to Figure 2-Figure 11 The collision stripping auxiliary component here includes an annular conduit 401, a connecting pipe 402, a second docking sealing disk 403, an injection hole 404 and a conical tube head 405; the connecting pipe 402 is symmetrically arranged on the outer ring edge of the annular conduit 401, and the second docking sealing disk 403 is fixedly arranged on one end of the connecting pipe 402, and the second docking sealing disk 403 is firmly connected to the first docking sealing disk 31 by screws; the injection holes 404 are equidistantly arranged on the inner ring edge of the annular conduit 401, and the conical tube head 405 is equidistantly arranged on the upper and lower side ring edges of the annular conduit 401; the injection holes 404 are equidistantly arranged in a ring shape on the inner ring edge of the annular conduit 401; the conical tube head 405 is also equidistantly arranged in a ring shape on the upper and lower side ring edges of the annular conduit 401, and the conical tube head 405 is inclined, and the large port of the conical tube head 405 is connected to the annular conduit 401.

[0039] The bottom discharging auxiliary mechanism here includes a first carrier plate cover 501, a fixed side 502, a rotation control motor 503, a connecting shaft 504, a connecting rod 505, a loading movable plate 506, a containing cavity 507, a fixing ring 508, a discharge pipe 509 and a peeling temporary storage component; a fixed side 502 is fixedly provided on the outer side of the cover opening of the first carrier plate cover 501, and a rotation control motor 503 is fixedly provided on the first carrier plate cover 501, and a connecting shaft 504 is provided at one end of the rotation control motor 503, and the connecting shaft 504 extends to the first carrier plate cover 501. The inner cavity of the disk cover 501 and the outer wall of the connecting shaft 504 are equidistantly fixed with connecting rods 505, and the other end of the connecting rods 505 is fixedly set on the side wall of the loading movable disk 506. The loading movable disk 506 is set in the inner cavity of the first supporting disk cover 501, and a discharge cavity is set at the bottom side of the first supporting disk cover 501. A fixing ring 508 is set at one end of the discharge pipe 509. The fixing ring 508 is fixed to the bottom side of the first supporting disk cover 501 by screws and is set at the cavity mouth position of the discharge cavity. The accommodating cavity 507 also corresponds to the setting position of the discharge cavity.

[0040] Here, accommodating cavities 507 are equidistantly arranged in the loading movable plate 506, and the accommodating cavities 507 correspond to the setting position of the bottom discharge port 14 at the bottom end of the tank body 1; and there are four accommodating cavities 507 in the loading movable plate 506; a temporary storage assembly for peeling is arranged in the accommodating cavity 507; the temporary storage assembly for peeling includes a loading ring body 601, a placement groove body 602, a limit slot 603, a bearing block body 604, a limit baffle 605, an auxiliary spring 606, a movable auxiliary baffle bar 607, an auxiliary slope 608 and an auxiliary discharge structure; the loading ring body 601 is placed in the accommodating cavity 507, a loading ring body 601 is placed in a accommodating cavity 507, and the side wall of the loading ring body 601 is equidistantly arranged with placement groove bodies 602, and the placement groove A limiting slot 603 is provided at the slot position of the outer wall of the body 602, a limiting baffle 605 is fixedly provided at one end of the bearing block 604, an auxiliary spring 606 is fixedly provided at the other end of the bearing block 604, and a movable auxiliary baffle 607 is fixedly provided at the other end of the auxiliary spring 606; the cavity opening of the discharge cavity is set to be circular, and the cavity opening diameter of the discharge cavity is set equal to the inner diameter of the ring opening of the loading ring body 601; the limiting baffle 605 here corresponds to the setting position of the limiting slot 603, and the setting number of groups is the same, the two are adapted to be connected, and the movable auxiliary baffle 607 is set in the same number as the placement slot 602, that is, one movable auxiliary baffle 607 is placed in one placement slot 602; an auxiliary slope 608 is provided at one end of the movable auxiliary baffle 607.

[0041] The auxiliary structure for discharging materials here is arranged on the supporting plate frame, and the auxiliary structure for discharging materials comprises a second supporting plate cover 701, a connecting side plate 702, an electrically-controlled telescopic rod 703, a connecting plate 704 and a pushing plate body 705; a connecting side plate 702 is fixedly arranged on the outer side of the cover opening of the second supporting plate cover 701, and the connecting side plate 702 is fixed to the supporting plate frame by screws, and the second supporting plate cover 701 and the first supporting plate cover 501 are connected and arranged, and an electrically-controlled telescopic rod 703 is fixedly arranged on the second supporting plate cover 701, and the bottom end of the electrically-controlled telescopic rod 703 extends into the inner cavity of the second supporting plate cover 701, and a connecting plate 704 is fixedly arranged on the end portion, and the connecting plate 704 and the pushing plate body 705 are fixed by screws, and the pushing plate body 705 is arranged in the second supporting plate cover 701, and the pushing plate body 705 is provided with one; the pushing plate body 705 corresponds to the setting position of the accommodating cavity 507 in the loading movable plate 506.

[0042] Among them, the annular duct 401 connected to the collision injection pipe 3 has injection holes 404 equidistantly arranged on the inner side surface of the annular duct 401, which forms an annular airflow collision area, which has a better collision and stripping effect on the materials falling from the feeding mechanism 13; furthermore, conical tube heads 405 are equidistantly arranged on the upper and lower sides of the annular duct 401, where the airflow ejected from the upper conical tube head 405 can directly collide and strip with the materials, and the airflow ejected from the lower conical tube head 405 can collide and strip the coarse materials after stripping again, where the conical tube heads 405 are equidistantly arranged in an annular shape, and the conical tube heads 405 themselves are inclined to form a rotating airflow to more fully collide and strip the materials; the annular duct 401 is detachably arranged to facilitate later replacement and maintenance.

[0043] The coarse materials after stripping enter the accommodating cavity 507 on the loading movable plate 506 from the bottom discharge port 14, where the coarse materials falling into the accommodating cavity 507 will temporarily stay for a certain period of time, that is, the fine materials that have not been stripped out in time in the coarse materials will be stripped again, and a movable auxiliary baffle 607 is provided in the loading ring body 601, one end of which extends to the inner side of the loading ring body 601, the purpose of which is to provide a simple blocking effect for the coarse materials falling into and accumulated in the accommodating cavity 507, and the materials that have been fully stripped stay in the accommodating cavity 507, that is, stay in the loading ring body 601. When the coarse materials accumulate to a certain extent, the loading movable plate 506 is driven to rotate by the rotation control motor 503, and then the accommodating cavity 507 installed in the coarse materials is moved to the discharge cavity position on the bottom side of the first carrier plate cover 501, and the accommodating cavities 507 at other positions of the loading movable plate 506 are loaded. 7 moves to the bottom discharge port 14 to temporarily collect coarse materials. When the accommodating cavity 507 with the coarse materials reaches the discharge cavity position, the coarse materials therein are discharged from the discharge pipe 509. At the same time, the electric-controlled telescopic rod 703 on the second carrier plate cover 701 is started to drive the pushing plate 705, so that the pushing plate 705 enters the loading ring body 601, and the materials adhered to the loading ring body 601 and the movable auxiliary baffle 607 are scraped off to avoid excessive accumulation and adhesion of materials. That is, when the pushing plate 705 enters the loading ring body 601 and passes the position of the movable auxiliary baffle 607, under the action of the auxiliary slope 608 at the end of the movable auxiliary baffle 607, the pushing plate 705 presses the movable auxiliary baffle 607 into the placement groove 602. After the scraping of the residual materials is completed, the pushing plate 705 can be reset by the electric-controlled telescopic rod 703.

[0044] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A high-pressure airflow collision device for producing graphene, characterized in that: It comprises a tank body (1), a collision stripping auxiliary component and a stripping temporary storage component; The bottom end of the tank body (1) is fixedly arranged on the support plate frame, and the bottom end of the tank body (1) is provided with a bottom discharge port (14), the bottom discharge port (14) is connected to the support plate frame, and the top of the tank body (1) is provided with a sealing cover (11); The sealing cover (11) is provided with a suction discharge pipe (12); The side wall of the tank body (1) is connected to a feeding mechanism (13), and the side of the tank body (1) is symmetrically provided with a collision spray pipe (3); The collision stripping auxiliary component is arranged in the inner cavity of the tank body (1), the stripping temporary storage component is arranged in the bottom discharge auxiliary mechanism, and the bottom discharge auxiliary mechanism is arranged on the bottom side of the bottom discharge port (14).

2. A high-pressure airflow collision device for producing graphene according to claim 1, characterized in that: The suction discharge pipe (12) is connected to the collision stripping filter cartridge (2), and the collision stripping filter cartridge (2) is arranged in the inner cavity of the tank body (1).

3. A high-pressure airflow collision device for producing graphene according to claim 1, characterized in that: One end of the collision spray pipe (3) extends into the inner cavity of the tank body (1), and a first butt sealing disc (31) is provided at the end, and the first butt sealing disc (31) is connected to the collision stripping auxiliary component.

4. A high-pressure airflow collision device for producing graphene according to claim 1, characterized in that: The collision stripping auxiliary component comprises an annular conduit (401), a connecting pipe (402), a second docking sealing disk (403), an injection hole (404) and a conical tube head (405); the connecting pipe (402) is symmetrically arranged on the outer ring edge of the annular conduit (401), and the second docking sealing disk (403) is fixedly arranged at one end of the connecting pipe (402); the second docking sealing disk (403) is firmly connected to the first docking sealing disk (31) by screws.

5. A high-pressure airflow collision device for producing graphene according to claim 4, characterized in that: The inner ring edge of the annular conduit (401) is provided with injection holes (404) at equal intervals, and the conical pipe head (405) is provided at equal intervals on the upper and lower ring edges of the annular conduit (401).

6. A high-pressure airflow collision device for producing graphene according to claim 4, characterized in that: The injection holes (404) are arranged in a circular shape at equal intervals on the inner side ring edge of the annular conduit (401); the conical tube head (405) is also arranged in a circular shape at equal intervals on the upper and lower side ring edges of the annular conduit (401), and the conical tube head (405) is arranged inclined, and the large port of the conical tube head (405) is connected to the annular conduit (401).

7. A high-pressure airflow collision device for producing graphene according to claim 1, characterized in that: The bottom discharge auxiliary mechanism comprises a first carrier plate cover (501), a fixed side edge (502), a rotation control motor (503), a connecting shaft (504), a connecting rod (505), a loading movable plate (506), a containing cavity (507), a fixing ring (508), a discharge pipe (509) and a peeling temporary storage component; the first carrier plate cover (501) is fixedly provided with a fixed side edge (502) on the outer side of the cover opening, and the first carrier plate cover (501) is fixedly provided with a rotation control motor (503), one end of the rotation control motor (503) is provided with a connecting shaft (504), and the connecting shaft (504) extends to the first carrier plate cover. (501), the outer wall of the connecting shaft (504) is equidistantly fixed with a connecting rod (505), the other end of the connecting rod (505) is fixedly set on the side wall of the loading movable plate (506), the loading movable plate (506) is set in the inner cavity of the first supporting plate cover (501), the bottom side of the first supporting plate cover (501) is provided with a discharge cavity, one end of the discharge pipe (509) is provided with a fixing ring (508), the fixing ring (508) is fixed to the bottom side of the first supporting plate cover (501) by screws, and is set at the cavity mouth position of the discharge cavity, and the accommodating cavity (507) also corresponds to the setting position of the discharge cavity.

8. A high-pressure airflow collision device for producing graphene according to claim 7, characterized in that: The loading movable plate (506) is provided with accommodating cavities (507) at equal intervals, and the accommodating cavities (507) correspond to the position of the bottom discharge port (14) at the bottom end of the tank body (1); and four accommodating cavities (507) are provided in the loading movable plate (506); a peeling temporary storage assembly is provided in the accommodating cavity (507); the peeling temporary storage assembly comprises a loading ring body (601), a placement slot body (602), a limit slot (603), a bearing block body (604), a limit baffle (605), an auxiliary spring (606), a movable auxiliary baffle bar (607), an auxiliary slope (608) and a discharge auxiliary structure; the loading ring body (601) is placed In the accommodating cavity (507), one loading ring (601) is placed in one accommodating cavity (507), the side wall of the loading ring (601) is equidistantly provided with a placement groove (602), the outer wall notch of the placement groove (602) is provided with a limit slot (603), one end of the bearing block (604) is fixedly provided with a limit stopper (605), the other end of the bearing block (604) is fixedly provided with an auxiliary spring (606), and the other end of the auxiliary spring (606) is fixedly provided with a movable auxiliary stopper (607); the cavity opening of the discharge cavity is set to be circular, and the cavity opening diameter of the discharge cavity is set to be equal to the inner diameter of the ring opening of the loading ring (601).

9. A high-pressure airflow collision device for producing graphene according to claim 8, characterized in that: The position of the limit blocking piece (605) and the position limiting slot (603) are corresponding, the number of sets is the same, the two are adapted to be connected, the number of sets of the movable auxiliary blocking bar (607) and the number of sets of the placement slot (602) are the same, that is, one movable auxiliary blocking bar (607) is placed in one placement slot (602); one end of the movable auxiliary blocking bar (607) is provided with an auxiliary slope (608).

10. The high-pressure airflow collision device for producing graphene according to claim 8, characterized in that: The auxiliary structure for discharging materials is arranged on the support plate frame, and the auxiliary structure for discharging materials comprises a second bearing plate cover (701), a connecting side plate (702), an electrically controlled telescopic rod (703), a connecting plate (704) and a material pushing plate body (705); a connecting side plate (702) is fixedly arranged on the outer side of the cover opening of the second bearing plate cover (701), and the connecting side plate (702) is fixed to the support plate frame by screws, and the second bearing plate cover (701) is connected to the first bearing plate cover (501), and the second bearing plate cover (701) is connected to the first bearing plate cover (501). ) is fixedly provided with an electric-controlled telescopic rod (703), the bottom end of which extends into the inner cavity of the second supporting plate cover (701), and a connecting plate (704) is fixedly provided at the end, the connecting plate (704) and the pushing plate body (705) are fixed by screws, the pushing plate body (705) is arranged in the second supporting plate cover (701), and the pushing plate body (705) is provided with one; the pushing plate body (705) corresponds to the setting position of the accommodating cavity (507) in the loading movable plate (506).

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