Continuous production device for graphene composite fibers

Abstract

The utility model discloses a graphene composite fiber continuous production device which comprises a heating furnace seat, a sealing butt joint seat, an air inlet end seat, a protection production structure and an exhaust end seat, the protection production structure is fixedly provided with the sealing butt joint seat, the sealing butt joint seat is provided with the heating furnace seat, and the exhaust end seat is provided with the air inlet end seat. One side of the sealing butt joint seat is provided with an air inlet end seat in a communicating mode, the other side of the sealing butt joint seat is provided with an air exhaust end seat in a communicating mode, the protection production structure comprises a bearing roller, a through seat, a negative pressure adsorber, a communicating guide pipe and a rotating frame, and the bearing roller is arranged at the side end of the through seat; a negative pressure adsorber is installed on the upper portion of the side, away from the bearing roller, of the through base, a communicating guide pipe is arranged on the negative pressure adsorber in a communicating mode, and the side end, away from the bearing roller, of the through base is rotationally connected with a rotating frame. According to the continuous production device for the graphene composite fibers, the purpose of continuous production of the graphene composite fibers is achieved through the arrangement of a protection production structure.

Description

Technical Field

[0001] The utility model relates to the technical field of graphene composite fiber production equipment, in particular to a graphene composite fiber continuous production device. Background Art

[0002] As a two-dimensional material with excellent performance, graphene has the characteristics of low resistivity, high thermal conductivity, and excellent mechanical properties. The thermal conductivity of a single-layer graphene is extremely high, reaching about 5200W / m·K at room temperature, making it the material with the highest thermal conductivity known at this stage. The combination of graphene glass fiber / optical fiber will produce a new type of graphene composite fiber, whose thermal conductivity will be greatly improved, thus having a wider range of applications. However, due to the special production method and application scenarios, glass fiber or optical fiber generally has a longer size, which brings great difficulties to the continuous production of graphene composite fibers. However, the current graphene composite fiber continuous production device has the following problems: the traditional graphene composite fiber continuous production device transports the fiber by tensioning, and during the transportation, the graphene is compounded. When the fiber is tensioned, it is inconvenient to carry out transmission protection, which will cause certain inconveniences and needs to be improved. Utility Model Content

[0003] The purpose of the utility model is to provide a graphene composite fiber continuous production device to solve the problems raised in the above background technology.

[0004] To achieve the above-mentioned purpose, the utility model provides the following technical solutions: a graphene composite fiber continuous production device, comprising a heating furnace seat, a sealing docking seat, an air inlet end seat, a protective production structure and an exhaust end seat, the protective production structure is fixedly mounted with a sealing docking seat, the sealing docking seat is mounted with a heating furnace seat, one side of the sealing docking seat is connected to an air inlet end seat, and the other side of the sealing docking seat is connected to an exhaust end seat;

[0005] The protective production structure includes a supporting roller, a through seat, a negative pressure adsorber, a connecting duct and a rotating frame. The side end of the through seat is provided with a supporting roller, the upper part of the through seat away from the supporting roller is equipped with a negative pressure adsorber, the negative pressure adsorber is connected with a connecting duct, and the side end of the through seat away from the supporting roller is rotatably connected to the rotating frame.

[0006] Specifically, the protective production structure also includes a driven wheel, a belt, a driving wheel and a toothed disc, the front end of the toothed disc is fixedly connected to the driving wheel, the driving wheel is drivingly connected to the belt, and the side end of the belt is drivingly connected to the driven wheel.

[0007] Specifically, the gear disc is driven and controlled by a motor.

[0008] Specifically, the driven wheel, belt, driving wheel, and gear plate are symmetrically arranged, and the symmetrical gear plates are meshed and connected.

[0009] Specifically, the fibers are transmitted on the rotating frame, and the fibers are connected to the supporting rollers through the rotating frame, the through seat, and arrive at the rotating frame at a symmetrical position.

[0010] Specifically, the lower ends of the air inlet end seat and the exhaust end seat penetrate the sealing docking seat and are connected with the furnace body on the through seat.

[0011] Compared with the prior art, the beneficial effects of the utility model are:

[0012] 1. By installing a heating furnace seat, heating treatment can be carried out to enable fiber heating and transmission. At the same time, an air inlet end seat and an exhaust end seat are arranged on the sealed docking seat to introduce a carbon source, realize the lamination treatment of graphene, and facilitate the production of graphene composite limiting.

[0013] Second, by installing a protective production structure, the gear disk inside the protective production structure is driven by a motor, which can drive the driving wheel to rotate. The driving wheel drives the driven wheel to follow the rotation through a belt, so that the rotating frame rotates, thereby realizing the conduction control of the fiber. The fiber is introduced into the supporting roller through the rotating frame and the through-seat, and then reaches the symmetrical rotating frame through the symmetrical through-seat for collection. At the same time, the negative pressure adsorber is connected to the connecting duct, which can adsorb excess carbon source. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] Figure 1 This is a schematic diagram of the main structure of the utility model;

[0015] Figure 2 It is a disassembled diagram of the main body of the utility model;

[0016] Figure 3 It is a structural schematic diagram of the protection production structure of the utility model.

[0017] In the figure: 1-heating furnace seat; 2-sealing docking seat; 3-inlet end seat; 4-protective production structure; 5-exhaust end seat; 6-supporting roller; 7-through seat; 8-negative pressure adsorber; 9-connecting duct; 10-rotating frame; 11-driven wheel; 12-belt; 13-driving wheel; 14-toothed disc. DETAILED DESCRIPTION

[0018] The following will be combined with the drawings in the embodiments of the utility model to clearly and completely describe the technical solutions in the embodiments of the utility model. Obviously, the described embodiments are only part of the embodiments of the utility model, not all of the embodiments. Based on the embodiments in the utility model, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the utility model.

[0019] See also Figure 1-3 The utility model provides a technical solution: a graphene composite fiber continuous production device, including a heating furnace seat 1, a sealing docking seat 2, an air intake end seat 3, a protective production structure 4 and an exhaust end seat 5, the protective production structure 4 is fixedly installed with a sealing docking seat 2, the sealing docking seat 2 is installed with a heating furnace seat 1, one side of the sealing docking seat 2 is connected with an air intake end seat 3, and the other side of the sealing docking seat 2 is connected with an exhaust end seat 5. By installing the heating furnace seat 1, a heating treatment can be performed to heat and transmit the fiber. At the same time, the air intake end seat 3 and the exhaust end seat 5 are arranged on the sealing docking seat 2, and a carbon source can be introduced to realize the lamination treatment of graphene, which is convenient for the production of graphene composite limit.

[0020] The protective production structure 4 includes a supporting roller 6, a through seat 7, a negative pressure adsorber 8, a connecting duct 9 and a rotating frame 10. The side end of the through seat 7 is provided with a supporting roller 6, and the negative pressure adsorber 8 is installed on the upper part of the through seat 7 on the side away from the supporting roller 6. A connecting duct 9 is connected to the negative pressure adsorber 8, and the side end of the through seat 7 away from the supporting roller 6 is rotatably connected to the rotating frame 10.

[0021] The protective production structure 4 also includes a driven wheel 11, a belt 12, a driving wheel 13 and a toothed disc 14. The front end of the toothed disc 14 is fixedly connected to the driving wheel 13, and the driving wheel 13 is drivingly connected to the belt 12. The side end of the belt 12 is drivingly connected to the driven wheel 11. By installing the protective production structure 4, the toothed disc 14 in the protective production structure 4 is driven by a motor, which can drive the driving wheel 13 to rotate. The driving wheel 13 drives the driven wheel 11 to rotate with the belt 12, so that the rotating frame 10 rotates to realize the conduction control of the fiber. The fiber is introduced into the supporting roller 6 through the rotating frame 10 and the through seat 7, and then reaches the symmetrical rotating frame 10 through the symmetrical through seat 7 for collection. At the same time, the negative pressure adsorber 8 is connected to the connecting duct 9 to adsorb excess carbon source.

[0022] The gear plate 14 is driven and controlled by a motor.

[0023] The driven wheel 11, the belt 12, the driving wheel 13, and the toothed disc 14 are symmetrically arranged, and the symmetrical toothed discs 14 are meshed and connected.

[0024] The fibers are transmitted on the rotating frame 10, and the fibers are connected to the supporting rollers 6 through the rotating frame 10, the through seat 7, and arrive at the rotating frame 10 at a symmetrical position.

[0025] The lower ends of the air inlet end seat 3 and the exhaust end seat 5 penetrate the sealing docking seat 2 and are connected with the furnace body on the through seat 7.

[0026] Working principle: when work is needed, the user assembles the whole structure, the fiber enters the protective production structure 4 through the rotating frame 10, and reaches the symmetrical rotating frame 10 through the through seat 7 and the supporting roller 6. At the same time, the motor controls the toothed disc 14 to rotate, so that the driving wheel 13 rotates accordingly. The driving wheel 13 rotates through the belt 12 to control the driven wheel 11 to rotate, so that the rotating frame 10 rotates, and the symmetrical toothed disc 14 rotates through meshing cooperation, so that the symmetrical rotating frame 10 rotates in the opposite direction to perform collection work. At the same time, the negative pressure adsorber 8 and the connecting duct 9 work to adsorb excess carbon source, and the heating furnace seat 1 performs heating work through the sealed docking seat 2. The carbon source is conducted to the protective production structure 4 through the air inlet end seat 3 and discharged through the exhaust end seat 5, so that the carbon source is adsorbed on the fiber, and composite production work is performed to complete the work.

[0027] 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 graphene composite fiber continuous production device, comprising a heating furnace seat (1), a sealing docking seat (2), an air intake end seat (3), a protective production structure (4) and an exhaust end seat (5), characterized in that: A sealing docking seat (2) is fixedly mounted on the protective production structure (4), a heating furnace seat (1) is mounted on the sealing docking seat (2), one side of the sealing docking seat (2) is connected to an air intake end seat (3), and the other side of the sealing docking seat (2) is connected to an exhaust end seat (5); The protective production structure (4) comprises a supporting roller (6), a through seat (7), a negative pressure absorber (8), a connecting conduit (9) and a rotating frame (10); the side end of the through seat (7) is provided with a supporting roller (6); the upper part of the through seat (7) facing away from the supporting roller (6) is provided with a negative pressure absorber (8); the negative pressure absorber (8) is connected to a connecting conduit (9); the side end of the through seat (7) facing away from the supporting roller (6) is rotatably connected to the rotating frame (10).

2. The graphene composite fiber continuous production device according to claim 1, characterized in that: The protective production structure (4) further comprises a driven wheel (11), a belt (12), a driving wheel (13) and a toothed disc (14); the front end of the toothed disc (14) is fixedly connected to the driving wheel (13); the driving wheel (13) is drivingly connected to the belt (12); and the side end of the belt (12) is drivingly connected to the driven wheel (11).

3. A graphene composite fiber continuous production device according to claim 2, characterized in that: The toothed disc (14) is driven and controlled by a motor.

4. A graphene composite fiber continuous production device according to claim 3, characterized in that: The driven wheel (11), the belt (12), the driving wheel (13), and the toothed disc (14) are symmetrically arranged, and the symmetrical toothed discs (14) are meshed and connected.

5. The graphene composite fiber continuous production device according to claim 4, characterized in that: The fibers are transmitted on the rotating frame (10), and the fibers are connected to the supporting roller (6) through the rotating frame (10), the through seat (7), and arrive at the rotating frame (10) at a symmetrical position.

6. The graphene composite fiber continuous production device according to claim 5, characterized in that: The lower ends of the air inlet end seat (3) and the exhaust end seat (5) penetrate the sealing docking seat (2) and are connected to the furnace body on the through seat (7).

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