Graphene floor heating packaging material production line

Abstract

The invention discloses a graphene floor heating packaging material production line, and relates to the technical field of graphene floor heating packaging materials.The graphene floor heating packaging material production line comprises an extruder, the extrusion end of the extruder is connected with an extrusion structure, the extrusion structure comprises a heating runner and a storage mechanism arranged on the outer side of the heating runner in a sleeving mode, and the storage mechanism can rotate around the extrusion axis; through the arrangement of the storage mechanism, when the extrusion speed is reduced, molten but not extruded materials are transferred into the storage groove of the storage seat, the molten materials in the storage groove cannot be continuously heated, the upper end is subjected to heat conduction through the heater, the lower portion and the outer side are subjected to heat preservation through the heat preservation outer cover, and the molten materials in the storage groove are kept in a flowable state; and then, when the extrusion speed is recovered, the storage tank rotates until the stored material flows back into the heating runner, and after being mixed with the subsequent molten material, the stored material and the subsequent molten material are extruded together, so that the problem that the quality of the molten packaging material is changed due to too long heating time caused by the change of the extrusion speed is solved.

Description

Technical Field

[0001] The invention relates to the technical field of graphene floor heating packaging material production, and in particular to a graphene floor heating packaging material production line. Background Art

[0002] Graphene floor heating is a new type of floor heating system that uses graphene as the heating material. The graphene floor heating packaging material selects additives according to the production process formula, and then grinds them after metering and proportioning. Then, the PVC resin powder is sieved, and the storage tank and the additives are automatically weighed and proportioned and enter the high-speed shear mixer for drying, internal mixing, and open mixing. After entering the extrusion hopper for heating, it is extruded and pulled through the mold to obtain the basic sheet, and then expanded, slowly cooled, and cooled. If necessary, the embossing cooling process is implemented to obtain a semi-finished product.

[0003] During the extrusion molding process of graphene floor heating packaging materials, the extruder feed speed needs to be controlled according to the product extrusion speed or conveying speed. However, when the extrusion speed at the extrusion port is reduced or the product conveying speed is reduced, the heating time of the original material in the extruder will increase, causing the molten packaging material to change in quality due to the long heating time, thereby causing the quality of the subsequently extruded product to change. Summary of the invention

[0004] The object of the present invention is to provide a graphene floor heating packaging material production line, which has the advantage that the quality of the molten packaging material will not change due to excessive heating time caused by changes in extrusion speed.

[0005] To achieve the above object, the present invention provides the following technical solution: a graphene floor heating packaging material production line, comprising an extruder, wherein an extrusion structure is connected to an extrusion end of the extruder, the extrusion structure comprises a heating flow channel and a storage mechanism sheathed on the outside of the heating flow channel, and the storage mechanism can rotate around an extrusion axis; The storage mechanism can intermittently communicate with the heating channel when it rotates. When the storage mechanism rotates to the bottom of the heating channel and communicates with the heating channel, the material in the heating channel flows into the storage mechanism. When the storage mechanism rotates to the top of the heating channel and communicates with the heating channel, the material in the storage mechanism flows back into the heating channel, and an insulating cover is provided on the outside of the extrusion structure.

[0006] Furthermore, a driving member for driving the storage mechanism to rotate is arranged on the output shaft of the extruder.

[0007] Furthermore, the storage mechanism includes a rotating ring and a storage seat, the rotating ring is covered on the outer wall of the heating flow channel, and a storage groove is opened in the storage seat.

[0008] Furthermore, an arc-shaped groove communicating with the storage groove is formed on the outer wall of the heating channel, and a heater is arranged in the heating channel.

[0009] Furthermore, the driving member includes a coupling mechanism, a linkage rod, a driving gear and a linkage mechanism. The output shaft of the extruder is connected to the linkage rod through the coupling mechanism. One end of the linkage rod is sleeved with the driving gear. The linkage mechanism is sleeved on the outer wall of the storage mechanism.

[0010] Furthermore, the linkage mechanism includes a linkage gear ring, a fixed outer ring, a clamp ring, a movable inner clamp ring and a connecting ring. The linkage gear ring is sleeved on the outer wall of the rotating ring, the linkage gear ring is meshed with the driving gear, one end of the clamp ring is sleeved on the outer wall of the rotating ring through the connecting ring, the outer side of the clamp ring is covered with a fixed outer ring, and a movable inner clamp ring is arranged between the clamp ring and the fixed outer ring.

[0011] Furthermore, a circle of grooves is arranged on the inner wall of the fixed outer ring, a section of annular teeth is arranged on the outer wall of the movable inner snap ring, and an eccentric groove is arranged on the movable inner snap ring.

[0012] Furthermore, the movable inner clamping ring is covered on the clamping ring through an eccentric groove.

[0013] Furthermore, a locking notch is provided on the clamp ring, and a locking block which is movably locked with the locking notch is provided on the inner wall of the eccentric groove.

[0014] Furthermore, the storage mechanism also includes a storage pipeline interconnected with the heating flow channel, and a screw conveyor is arranged in the storage pipeline.

[0015] Technical effects and advantages of the present invention: 1. The present invention provides a storage mechanism so that when the extrusion speed is reduced, the melted but unextruded material can be transferred to the storage tank of the storage seat. The melted material in the storage tank will not continue to be heated, and the upper end is heat-conducted by the heater, and the lower and outer sides are insulated by the heat-insulating outer cover. The melted material in the storage tank is kept in a flowable state. Then, when the extrusion speed is restored, the storage tank is rotated until the stored material flows back to the heating flow channel, and is mixed with the subsequent melted material and extruded together, thereby solving the problem that the quality of the melted packaging material changes due to excessive heating time caused by the change in extrusion speed.

[0016] 2. The driving member of the present invention can drive the storage mechanism to rotate when the output shaft of the extruder changes speed, so as to store excess material during deceleration. When the speed is restored, the storage mechanism is driven to rotate and reset, so that the stored material can flow back into the heating channel. The driving smoothness is improved by setting the driving member, and driving errors caused by single driving errors are avoided. The driving member uses the power extruded by the extruder to adjust the speed of the material in the heating channel, thereby reducing additional driving and improving driving flexibility. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1It is a schematic diagram of the overall structure of the present invention; Figure 2 It is a schematic diagram of the structure of the extrusion die of the present invention; Figure 3 This is a schematic diagram of the structure of a driving member according to the second embodiment of the present invention; Figure 4 It is a schematic diagram of the structure of the extrusion die of the present invention; Figure 5 It is a schematic diagram of the local structure of the driving member of the present invention; Figure 6 It is a side view of the driving member structure of the present invention; Figure 7 It is a schematic diagram of the linkage mechanism structure of the present invention; Figure 8 For the present invention Figure 5 A magnified image of point A; Fig. 9 For the present invention Figure 6 A magnified view of point B; Fig.10 This is a schematic diagram of the structure of Embodiment 3 of the present invention; Fig.11 For the present invention Fig.10 Enlarged view of point C.

[0018] In the figure: 1. Extruder; 2. Extrusion die; 21. Heating channel; 211. Arc groove; 22. Storage mechanism; 221. Rotating ring; 222. Storage seat; 223. Storage pipeline; 224. Screw conveyor; 2241. Linkage gear; 23. Insulation cover; 3. Driving member; 31. Coupling mechanism; 311. First coupling; 312. Second coupling; 313. Third coupling; 314. Docking rod; 32. Linkage rod; 33. Driving gear; 34 , linkage mechanism; 341, linkage gear ring; 342, fixed outer ring; 3421, slot; 343, clamp ring; 3431, positioning notch; 344, movable inner clamp ring; 3441, annular teeth; 3442, eccentric groove; 345, connecting ring; 35, locking piece; 351, telescopic rod; 352, extrusion spring; 353, linkage plate; 354, turntable; 3541, support; 355, sliding rod; 3551, counterweight roller; 4, extrusion mold. DETAILED DESCRIPTION

[0019] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0020] In order to better understand the graphene floor heating packaging material production line provided in this embodiment, the existing graphene floor heating packaging material production line is briefly introduced below. The extruder needs to select appropriate speed control parameters according to different raw materials to ensure the quality of the extruded product. It is also necessary to adjust the discharge control parameters in time according to production needs to meet production requirements. However, when the extrusion speed of the extrusion port is reduced or the product conveying speed is reduced, the heating time of the original material in the extruder will increase, resulting in poor quality of the base sheet obtained by extrusion and traction. The specification aims to solve the above technical problems. The embodiment of the present application provides a graphene floor heating packaging material production line to solve the above problems.

[0021] Example 1: Reference Figure 1 - Figure 2 , which is the first embodiment of the present invention, provides a graphene floor heating packaging material production line, including a high-speed shear mixer and an extruder 1, wherein the extruder 1 is connected to an extrusion structure 2 at the extrusion end, the extrusion structure 2 includes a heating channel 21 and a storage mechanism 22 sheathed on the outside of the heating channel 21, and the storage mechanism 22 can rotate around the extrusion axis, and the extrusion structure 2 is connected to an extrusion die 4 at the discharge port, the material enters the high-speed shear mixer, is dried, banburyed, and opened for refining, and then enters the extrusion hopper of the extruder 1, and is extruded by the extruder 1 and the extrusion structure 2 into the extrusion die 4, and is heated and extruded through the extrusion die 4, and is pulled to obtain a base sheet, and then expanded, slowly cooled, and cooled, and an embossing cooling process is performed if necessary to obtain a semi-finished product, and then trimming, curling, inspection, metering, packaging, and product storage are performed first; The storage mechanism 22 can be intermittently communicated with the heating channel 21 when it rotates. When the storage mechanism 22 rotates to the bottom of the heating channel 21 and communicates with the heating channel 21, the material in the heating channel 21 flows into the storage mechanism 22. When the storage mechanism 22 rotates to the top of the heating channel 21 and communicates with the heating channel 21, the material in the storage mechanism 22 flows back into the heating channel 21. A heat-insulating outer cover 23 is provided on the outside of the extrusion structure 2. A driving member 3 for driving the storage mechanism 22 to rotate is provided on the output shaft of the extruder 1. The storage mechanism 22 includes a rotating ring 221 and a storage seat 222. The rotating ring 221 is covered on the outer wall of the heating channel 21. A storage slot is provided in the storage seat 222. The driving member 3 includes a motor and a speed measuring device. The motor is connected to the speed measuring system, and the output end of the motor is connected to the rotating ring 221. The speed measuring system is used to detect the speed of the driving rod of the extruder 1 during extrusion, and start the motor according to the speed of the extruder 1. When the speed of the extruder 1 slows down, the motor drives the rotating ring 221 and the storage seat 222 to rotate to the bottom of the heating channel 21, and the excess and heated material in the heating channel 21 flows into the storage groove of the storage seat 222, and the material in the storage groove is insulated by the insulation cover 23. When the extruder 1 resumes its speed, the motor drives the rotating ring 221 and the storage seat 222 to rotate to the top of the heating channel 21. At this time, the insulated and stored material in the storage groove flows back to the heating channel 21, and is pulled and extruded by the extrusion die 4 together with the material to obtain a sheet.

[0022] An arc groove 211 communicating with the storage groove is formed on the outer wall of the heating flow channel 21, and a heater is arranged in the heating flow channel 21. By arranging the storage mechanism 22, when the extrusion speed is reduced, the melted but not extruded material can be transferred to the storage groove of the storage seat 222. The melted material in the storage groove will not continue to be heated, and the upper end is heat-conducted by the heater, and the lower and outer sides are insulated by the insulation cover 23. The melted material in the storage groove remains in a flowable state. Then, when the extrusion speed is restored, the storage groove rotates until the stored material flows back into the heating flow channel 21, is mixed with the subsequent melted material, and is extruded together, thereby solving the problem of quality change of the melted packaging material due to excessive heating time caused by changes in the extrusion speed.

[0023] Example 2: Reference Figure 3 - Fig. 9 , which is the second embodiment of the present invention. This embodiment is different from the first embodiment. During the implementation of the first embodiment, it is found that each time the speed of the extruder 1 is changed, the detection system needs to be detected before the storage seat 222 can be adjusted. However, the detection system and the extruder 1 have a speed detection difference. When an error occurs when driving alone, it affects the function of the extrusion structure 2, and the extrusion structure 2 cannot be driven flexibly and synchronously to adjust at the same time as the extruder 1.

[0024] In order to solve the above problems, the present embodiment is provided with a driving member 3 capable of synchronously adjusting the extrusion structure 2 and the extruder 1. The driving member 3 includes a coupling mechanism 31, a linkage rod 32, a driving gear 33 and a linkage mechanism 34. The output shaft of the extruder 1 is docked with the linkage rod 32 through the coupling mechanism 31. One end of the linkage rod 32 is sleeved with the driving gear 33. The linkage mechanism 34 is sleeved on the outer wall of the storage mechanism 22. The coupling mechanism 31 includes a first coupling 311, a second coupling 312, a third coupling 313 and a docking rod 314. The first coupling 311 is sleeved on the output shaft of the extruder 1, the second coupling 312 is clamped with the first coupling 311, the second coupling 312 is also clamped with the third coupling 313, the second coupling 312 is sleeved on the output shaft of the extruder 1 through a bent rod, the third coupling 313 is sleeved on the docking rod 314, the docking rod 314 is docked with the linkage rod 32 through a gear, and the linkage mechanism 34 is sleeved on the outer wall of the storage mechanism 22. The driving mechanism 34 includes a linkage gear ring 341, a fixed outer ring 342, a clamp ring 343, a movable inner clamp ring 344 and a connecting ring 345. The linkage gear ring 341 is sleeved on the outer wall of the rotating ring 221, the linkage gear ring 341 is meshed with the driving gear 33, one end of the clamp ring 343 is sleeved on the outer wall of the rotating ring 221 through the connecting ring 345, the outer side of the clamp ring 343 is sleeved with the fixed outer ring 342, and a movable inner clamp ring 344 is arranged between the clamp ring 343 and the fixed outer ring 342. The movable inner snap ring 344 and the fixed outer ring 342 have a circle of grooves 3421 on their inner walls, a section of annular teeth 3441 are provided on the outer wall of the movable inner snap ring 344, an eccentric groove 3442 is provided on the movable inner snap ring 344, the movable inner snap ring 344 is covered on the clamp ring 343 through the eccentric groove 3442, a locking notch 3431 is provided on the clamp ring 343, and a locking block that can be movably locked with the locking notch 3431 is provided on the inner wall of the eccentric groove 3442.

[0025] The driving member 3 also includes a locking member 35 connected to the output end of the extrusion motor. The locking member 35 includes a telescopic rod 351, an extrusion spring 352, a linkage plate 353, a turntable 354 and a sliding rod 355. A slide groove is provided below the heat-insulating outer cover 23. The telescopic rod 351 is installed in the slide groove. The bottom end of the telescopic rod 351 is vertically connected with the linkage plate 353. The telescopic rod 351 is covered with an extrusion spring 352, and the extrusion spring 352 is provided in the slide groove. The turntable 354 is sleeved on the output end of the extrusion motor. The output end of the extrusion motor drives the output shaft of the extruder 1 to rotate through a belt. A plurality of supports 3541 are provided outside the turntable 354. Each support 3541 is provided with an inner groove for limiting the movement of the sliding rod 355. One end of the sliding rod 355 is connected with a counterweight roller 3551. The automatic locking and automatic unlocking of the locking member 35 are achieved by the cooperation of the rotation speed and the counterweight roller 3551.

[0026] The driving member 3 can drive the storage mechanism 22 to rotate when the output shaft of the extruder 1 changes speed, so as to store excess material during deceleration. When the speed is restored, the storage mechanism 22 can be driven to rotate and reset, so that the stored material can flow back into the heating channel 21. By setting the driving member 3, the driving smoothness is improved to avoid driving errors caused by single driving errors. The driving member 3 uses the power extruded by the extruder 1 to adjust the speed of the material in the heating channel 21, reduce additional driving, and improve driving flexibility.

[0027] Specifically, the output shaft of the extruder 1 is driven to rotate by the extrusion motor to drive the extruder 1 to extrude. When the extruder 1 rotates rapidly, the output shaft of the extruder 1 drives the first coupling 311 to rotate, and drives the second coupling 312 to revolve around the axis of the output shaft of the extruder 1 through the bending rod. When the second coupling 312 revolves, it drives the third coupling 313 to rotate, and then drives the docking rod 314 to rotate. The docking rod 314 drives the linkage rod 32 to rotate through the gear. The linkage rod 32 rotates and drives the linkage mechanism 34 to rotate together through the driving gear 33. The driving gear 33 is meshed with the linkage gear ring 341, thereby driving the rotating ring 221 to rotate, thereby driving the storage seat 222 to rotate rapidly. When the storage seat 222 rotates to above the heating flow channel 21, the material inside When the rotating speed increases, the storage seat 222 has an acceleration when rotating, and the rotating ring 221 drives the clamp ring 343 to rotate, and the clamp ring 343 pushes the movable inner clamp ring 344 to rotate together through the clamping slot 3431. Under the effect of acceleration, the movable inner clamp ring 344 rotates eccentrically so that the inner wall block is quickly clamped into the clamping slot 3431. When the block of the movable inner clamp ring 344 is clamped into the clamping slot 3431, the annular teeth 3441 on the outer wall of the movable inner clamp ring 344 rotate to the bottom and lock with the clamping slot 3421 at the bottom of the inner wall of the fixed outer ring 342. At this time, the storage seat 222 rotates to the top of the heating flow channel 21 and communicates with the heating flow channel 21, so that the material stored in the storage seat 222 flows back to the heating flow channel 21. In the embodiment, the output shaft of the extruder 1 rotates rapidly continuously. Since the linkage rod 32 is locked by the linkage mechanism 34 and cannot rotate, at this time, the first coupling 311 rotates to drive the second coupling 312 to revolve. At the same time, the second coupling 312 is limited by the third coupling 313 to rotate, and the second coupling 312 revolves and rotates simultaneously, with a tendency to drive the third coupling 313 to rotate, so that the linkage mechanism 34 is always kept in a locked state. When the output shaft of the extruder 1 reduces the speed, the second coupling 312 rotates slower, and the gap between the third coupling 313 and the second coupling 312 becomes larger. The second coupling 312 cannot continue to drive the third coupling 313 to rotate. When there is a gap between the third coupling 313 and the second coupling 312, The third coupling 313 cannot limit the storage seat 222. The storage seat 222 rotates under the action of its own weight, and then drives the annular teeth 3441 to unlock the slot 3421 below the inner wall of the fixed outer ring 342, and the movable inner snap ring 344 is reset. At this time, the second coupling 312 continues to drive the third coupling 313 to rotate slowly, and then drives the rotating ring 221 and the storage seat 222 to rotate together. When the speed of the extrusion motor output end slows down, the speed of the turntable 354 also slows down, and the speed cannot be used to drive the counterweight roller 3551 to move against gravity, resulting in the sliding rod 355 being unable to extend above the linkage plate 353, resulting in the inability to drive the telescopic rod 351 to retract. When the storage seat 222 rotates to the bottom of the heating flow channel 21, it is limited by the telescopic rod 351 and cannot move.The excess material in the heating channel 21 enters the storage seat 222 for heat preservation and storage. When the output end of the extruder motor resumes its speed, the speed of the turntable 354 increases synchronously, and the counterweight roller 3551 is thrown out by centrifugation and extends above the linkage plate 353, driving the linkage plate 353 to move downward and then driving the telescopic rod 351 to retract, unlocking the storage seat 222, and the storage seat 222 can be repeatedly rotated to the top of the heating channel 21.

[0028] Example 3: Reference Fig.10 - Fig.11 , which is the third embodiment of the present invention. This embodiment is different from the second embodiment in that it provides another method of using rotation speed to solve the problem that the quality of the molten packaging material changes due to excessive heating time caused by changes in extrusion speed. The storage mechanism 22 also includes a storage pipe 223 that is interconnected with the heating flow channel 21. A screw conveyor 224 is arranged in the storage pipe 223. A turntable 354 is installed at one end of the linkage rod 32. A plurality of supports 3541 are arranged outside the turntable 354. Each support 3541 is provided with an inner groove for limiting the movement of the sliding rod 355. A counterweight roller 3551 is connected to one end of the sliding rod 355. A linkage tooth 2241 is connected to the output rod below the screw conveyor 224 through a coupling structure. The linkage rod 32 has the same rotation speed as the output shaft of the extruder 1. When the output shaft of the extruder 1 rotates at a normal speed, it drives the linkage rod 32 to rotate. When the linkage rod 32 rotates at a normal speed, the weight of the counterweight roller 3551 can be used to drive the sliding rod 355 to be thrown out, and the swung sliding rod 355 is connected with the tooth rod on the linkage tooth 2241, thereby driving the linkage tooth 2241 to rotate, and the linkage tooth 2241 drives the screw conveyor 224 to rotate through the coupling structure, and transports the material in the storage pipe 223 back to the heating flow channel 21. When the output shaft speed of the extruder 1 slows down, the linkage rod 32 slows down synchronously, and the slowed speed cannot drive the sliding rod 355 to be thrown out, and then cannot drive the linkage tooth 2241 to rotate, all the screw conveyors 224 stop rotating, and the material accumulated in the heating flow channel 21 flows back to the storage pipe 223 under the action of gravity for heat preservation and storage, and the amount of extruded material can be adjusted according to the extrusion speed to ensure that the quality of the molten packaging material will not change due to the change in the extrusion speed, thereby improving the extrusion quality of the substrate.

[0029] Finally, it should be noted that the above is only a preferred embodiment 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 graphene floor heating packaging material production line, comprising an extruder (1), characterized in that: The extrusion end of the extruder (1) is connected to an extrusion structure (2), the extrusion structure (2) comprising a heating channel (21) and a storage mechanism (22) sheathed on the outside of the heating channel (21), and the storage mechanism (22) is capable of rotating around an extrusion axis; The storage mechanism (22) can intermittently communicate with the heating flow channel (21) when rotating; when the storage mechanism (22) rotates to below the heating flow channel (21) and communicates with the heating flow channel (21), the material in the heating flow channel (21) flows into the storage mechanism (22); when the storage mechanism (22) rotates to above the heating flow channel (21) and communicates with the heating flow channel (21), the material in the storage mechanism (22) flows back into the heating flow channel (21); and a heat-insulating outer cover (23) is provided on the outside of the extrusion structure (2).

2. A graphene floor heating packaging material production line according to claim 1, characterized in that: A driving member (3) for driving the storage mechanism (22) to rotate is arranged on the output shaft of the extruder (1).

3. A graphene floor heating packaging material production line according to claim 2, characterized in that: The storage mechanism (22) comprises a rotating ring (221) and a storage seat (222); the rotating ring (221) is sleeved on the outer wall of the heating flow channel (21); and a storage slot is provided in the storage seat (222).

4. A graphene floor heating packaging material production line according to claim 3, characterized in that: An arc-shaped groove (211) communicating with the storage groove is provided on the outer wall of the heating flow channel (21), and a heater is provided in the heating flow channel (21).

5. A graphene floor heating packaging material production line according to claim 4, characterized in that: The driving member (3) comprises a coupling mechanism (31), a linkage rod (32), a driving gear (33) and a linkage mechanism (34); the output shaft of the extruder (1) is connected to the linkage rod (32) via the coupling mechanism (31); one end of the linkage rod (32) is sleeved with the driving gear (33); and the linkage mechanism (34) is sleeved on the outer wall of the storage mechanism (22).

6. A graphene floor heating packaging material production line according to claim 5, characterized in that: The linkage mechanism (34) comprises a linkage gear ring (341), a fixed outer ring (342), a clamp ring (343), a movable inner clamp ring (344) and a connecting ring (345); the linkage gear ring (341) is sleeved on the outer wall of the rotating ring (221); the linkage gear ring (341) is meshed with the driving gear (33); one end of the clamp ring (343) is sleeved on the outer wall of the rotating ring (221) via the connecting ring (345); the outer side of the clamp ring (343) is sleeved with the fixed outer ring (342); and a movable inner clamp ring (344) is provided between the clamp ring (343) and the fixed outer ring (342).

7. A graphene floor heating packaging material production line according to claim 6, characterized in that: The inner wall of the fixed outer ring (342) is provided with a circle of grooves (3421), the outer wall of the movable inner snap ring (344) is provided with a section of annular teeth (3441), and the movable inner snap ring (344) is provided with an eccentric groove (3442).

8. The graphene floor heating packaging material production line according to claim 7, characterized in that: The movable inner clamp ring (344) is sleeved onto the clamp ring (343) through the eccentric groove (3442).

9. The graphene floor heating packaging material production line according to claim 8, characterized in that: The clamp ring (343) is provided with a locking notch (3431), and the inner wall of the eccentric groove (3442) is provided with a locking block that movably locks with the locking notch (3431).

10. A graphene floor heating packaging material production line according to claim 9, characterized in that: The storage mechanism (22) further comprises a storage pipe (223) communicating with the heating flow channel (21), and a screw conveyor (224) is arranged in the storage pipe (223).

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