阅读说明：本技术 一种石墨烯发热丝加工系统与方法 (Graphene heating wire processing system and method ) 是由 陈东亮 于 2020-04-10 设计创作，主要内容包括：本发明涉及石墨烯发热丝,更具体的说是一种石墨烯发热丝加工系统与方法,包括装置支架、石墨机构、移动机构、粘附机构Ⅰ、粘附机构Ⅱ、成丝机构Ⅰ和成丝机构Ⅱ,可以将石墨筒装夹在两个锥形转动轮Ⅰ之间,粘附机构Ⅰ对石墨筒上的石墨进行初步粘附；移动机构驱动粘附机构Ⅰ进行运动,粘附机构Ⅰ和粘附机构Ⅱ进行多次接触,对粘附机构Ⅰ上的石墨进一步粘附；移动机构驱动粘附机构Ⅰ进行运动,成丝机构Ⅰ和粘附机构Ⅰ进行接触,使得成丝机构Ⅰ上形成石墨烯；成丝机构Ⅱ和成丝机构Ⅰ进行接触,成丝机构Ⅱ和成丝机构Ⅰ之间差速运动,成丝机构Ⅱ和成丝机构Ⅰ产生相对运动,石墨烯被卷成石墨烯丝。(The invention relates to a graphene heating wire, in particular to a system and a method for processing the graphene heating wire, which comprises a device bracket, a graphite mechanism, a moving mechanism, an adhesion mechanism I, an adhesion mechanism II, a wire forming mechanism I and a wire forming mechanism II, wherein a graphite barrel can be clamped between two conical rotating wheels I, and the adhesion mechanism I is used for preliminarily adhering graphite on the graphite barrel; the moving mechanism drives the adhesion mechanism I to move, and the adhesion mechanism I and the adhesion mechanism II are contacted for multiple times to further adhere graphite on the adhesion mechanism I; the moving mechanism drives the adhesion mechanism I to move, and the filamentation mechanism I is contacted with the adhesion mechanism I, so that graphene is formed on the filamentation mechanism I; the filamentation mechanism II contacts with the filamentation mechanism I, differential motion is carried out between the filamentation mechanism II and the filamentation mechanism I, the filamentation mechanism II and the filamentation mechanism I generate relative motion, and graphene is coiled into graphene wires.)

1. The utility model provides a graphite alkene heater system of processing, includes device support (1), graphite mechanism (2), moving mechanism (3), adhesion mechanism I (4), adhesion mechanism II (5), filamentation mechanism I (6) and filamentation mechanism II (7), its characterized in that: the device is characterized in that the front end of the device support (1) is connected with a graphite mechanism (2), the upper end of the device support (1) is fixedly connected with a moving mechanism (3), the moving mechanism (3) is connected with an adhesion mechanism I (4), the middle part of the device support (1) is connected with an adhesion mechanism II (5), the lower side of the rear end of the device support (1) is fixedly connected with a wire forming mechanism I (6), and the middle part of the rear end of the device support (1) is fixedly connected with a wire forming mechanism II (7).

2. The graphene heating wire processing system according to claim 1, wherein: the device support (1) comprises a device frame (101), a mounting support I (102) and a sliding track (103), the middle of the device frame (101) is fixedly connected with the mounting support I (102), and the front end of the device frame (101) is fixedly connected with the sliding track (103).

3. The graphene heating wire processing system according to claim 2, wherein: graphite mechanism (2) are including two-way threaded rod I (201), slip cylinder I (202), slip post I (203), wheel I (204) and graphite section of thick bamboo (205) are rotated to the toper, two-way threaded rod I (201) are rotated and are connected on device frame (101), there are slip cylinder I (202) both ends of two-way threaded rod I (201) all through threaded connection, the screw thread at two-way threaded rod I (201) both ends is revolved to opposite, equal sliding connection has slip post I (203) in two slip cylinders I (202), fixedly connected with compression spring I between slip post I (203) and the slip cylinder I (202), it rotates wheel I (204) to rotate to be connected with the toper between two slip posts I (203), the clamping has graphite section of thick bamboo (205) between two toper rotation wheels I (204), equal sliding connection of two slip cylinders I (202) is on slip track (103).

4. The graphene heating wire processing system according to claim 3, wherein: moving mechanism (3) are including removing frame (301), moving motor (302), telescopic machanism I (303) and installing support II (304), remove frame (301) fixed connection in the upper end of device frame (101), fixedly connected with moving motor (302) on removing frame (301), there is telescopic machanism I (303) through threaded connection on the output shaft of moving motor (302), telescopic machanism I (303) sliding connection is on removing frame (301), the telescopic end fixedly connected with installing support II (304) of telescopic machanism I (303).

5. The graphene heating wire processing system according to claim 4, wherein: the adhering mechanism I (4) comprises two bidirectional threaded rods II (401), two sliding cylinders II (402), two sliding columns II (403), two conical rotating wheels II (404), two adhesive tape cylinders I (405), two adhesive tape cylinders II (406), a storage motor I (407), a telescopic mechanism II (408) and a supporting base plate I (409), the two bidirectional threaded rods II (401) are rotatably connected to the mounting bracket II (304), the screw threads at the two ends of the two bidirectional threaded rods II (401) are opposite in rotating direction, the two ends of the two bidirectional threaded rods II (401) are respectively connected with the sliding cylinders II (402) through screw threads, the sliding columns II (403) are respectively and slidably connected in each sliding cylinder II (402), a compression spring II is fixedly connected between each sliding column II (403) and each sliding cylinder II (402), the conical rotating wheels II (404) are respectively and rotatably connected on each sliding column II (403), two toper that correspond rotate and are equipped with adhesive tape section of thick bamboo I (405) and adhesive tape section of thick bamboo II (406) between wheel II (404) respectively, connect through sticky tape I between adhesive tape section of thick bamboo I (405) and the adhesive tape section of thick bamboo II (406), the output shaft fixed connection of accomodating motor I (407) is on one of them toper rotates wheel II (404), fixedly connected with supporting baseplate I (409) is served in the flexible of telescopic machanism II (408), telescopic machanism II (408) fixed connection is on installing support II (304), supporting baseplate I (409) top is on sticky tape I.

6. The graphene heating wire processing system according to claim 5, wherein: the adhesion mechanism II (5) comprises two bidirectional threaded rods III (501), sliding cylinders III (502), sliding columns III (503), conical rotating wheels III (504), adhesive tape cylinders III (505), adhesive tape cylinders IV (506), a storage motor II (507), a telescopic mechanism III (508) and a supporting base plate II (509), wherein the two bidirectional threaded rods III (501) are rotationally connected to the mounting bracket I (102), the thread turning directions of the two ends of the bidirectional threaded rods III (501) are opposite, the two ends of the two bidirectional threaded rods III (501) are respectively connected with the sliding cylinders III (502) through threads, the sliding columns III (503) are respectively and slidably connected in each sliding cylinder III (502), a compression spring II is fixedly connected between each sliding column III (503) and each sliding cylinder (502), and the conical rotating wheels III (504) are respectively and rotatably connected on each sliding column III (503), wheel III (505) and adhesive tape section of thick bamboo IV (506) are rotated to two cones that correspond and are clamped respectively between wheel III (504), adhesive tape section of thick bamboo III (505) and adhesive tape section of thick bamboo IV (506) are connected through sticky tape II, the output shaft fixed connection who accomodates motor II (507) is on one of them cone rotates wheel III (504), fixedly connected with supporting baseplate II (509) is served in the flexible of telescopic machanism III (508), telescopic machanism III (508) fixed connection is on installing support I (102), supporting baseplate II (509) top is on sticky tape II.

7. The graphene heating wire processing system according to claim 6, wherein: the filamentation mechanism I (6) comprises a filamentation frame I (601), a filamentation motor I (602), a telescopic mechanism IV (603), a clamping frame I (604), a clamping plate I (605), a clamping threaded rod I (606) and a base I (607), become a frame I (601) fixed connection on device frame (101), fixedly connected with filamentation motor I (602) on filamentation frame I (601), there are telescopic machanism IV (603) through threaded connection on the output shaft of filamentation motor I (602), fixedly connected with clamping frame I (604) on the flexible end of telescopic machanism IV (603), sliding connection has two clamping boards I (605) in clamping frame I (604), all rotate on two clamping boards I (605) and be connected with clamping threaded rod I (606), two clamping threaded rod I (606) all are on clamping frame I (604) through threaded connection, the clamping has base I (607) between two clamping boards I (605).

8. The graphene heating wire processing system according to claim 7, wherein: the filamentation mechanism II (7) comprises a filamentation frame II (701), a filamentation motor II (702), a telescopic mechanism V (703), a clamping frame II (704), a clamping plate II (705), a clamping threaded rod II (706) and a base II (707), become a silk frame II (701) fixed connection on device frame (101), fixedly connected with filamentation motor II (702) on filamentation frame II (701), there are telescopic machanism V (703) through threaded connection on the output shaft of filamentation motor II (702), fixedly connected with clamping frame II (704) on the flexible end of telescopic machanism V (703), sliding connection has two clamping boards II (705) in clamping frame II (704), all rotate on two clamping boards II (705) and be connected with clamping threaded rod II (706), two clamping threaded rod II (706) all through threaded connection on clamping frame II (704), the clamping has base II (707) between two clamping boards II (705).

9. The method for processing the graphene heating wire by using the graphene heating wire processing system as claimed in claim 8, is characterized in that: the method comprises the following steps:

the method comprises the following steps: clamping a graphite cylinder (205) between two conical rotating wheels I (204), and preliminarily adhering graphite on the graphite cylinder (205) by an adhering mechanism I (4);

step two: the moving mechanism (3) drives the adhesion mechanism I (4) to move, the adhesion mechanism I (4) and the adhesion mechanism II (5) are contacted for multiple times, and graphite on the adhesion mechanism I (4) is further adhered;

step three: the moving mechanism (3) drives the adhesion mechanism I (4) to move, and the wire forming mechanism I (6) is contacted with the adhesion mechanism I (4), so that graphene is formed on the wire forming mechanism I (6);

step four: the filamentation mechanism II (7) is contacted with the filamentation mechanism I (6), the filamentation mechanism II (7) and the filamentation mechanism I (6) do differential motion, the filamentation mechanism II (7) and the filamentation mechanism I (6) generate relative motion, and graphene is coiled into graphene wires.

Technical Field

The invention relates to a graphene heating wire, in particular to a system and a method for processing the graphene heating wire.

Background

For example, publication No. CN110034356A discloses a graphene heating layer storage battery heating heat-insulating sheath and a preparation method thereof, and relates to a graphene heating layer storage battery heating heat-insulating sheath and a preparation method thereof, which are used in military storage batteries and energy storage fields of electric vehicles, solar power generation, wind power generation, power valley energy storage, uninterrupted power supplies and the like. The graphene storage battery heating and heat-insulating sheath is formed by mutually connecting an upper cover surface layer, a right side surface layer, a front side surface layer, a left side surface layer, a rear side surface layer and a bottom surface layer to form a hexahedron, and the storage battery is wrapped in the hexahedron of the graphene heating layer storage battery heating and heat-insulating sheath; the invention has the defect that the graphene heating wire cannot be efficiently prepared.

Disclosure of Invention

The invention aims to provide a graphene heating wire processing system and method, which can be used for efficiently preparing a graphene heating wire.

The purpose of the invention is realized by the following technical scheme:

the utility model provides a graphite alkene heater system of processing and method, includes device support, graphite mechanism, moving mechanism, adhesion mechanism I, adhesion mechanism II, filamentation mechanism I and filamentation mechanism II, the front end of device support is connected with graphite mechanism, and the upper end fixedly connected with moving mechanism of device support is connected with adhesion mechanism I on the moving mechanism, and the middle part of device support is connected with adhesion mechanism II, and the downside fixedly connected with filamentation mechanism I of device support rear end, the middle part fixedly connected with filamentation mechanism II of device support rear end.

According to the further optimization of the technical scheme, the graphene heating wire processing system comprises a device frame, a mounting support I and a sliding rail, wherein the mounting support I is fixedly connected to the middle of the device frame, and the sliding rail is fixedly connected to the front end of the device frame. As a further optimization of the technical scheme, the graphene heating wire processing system provided by the invention comprises

According to the further optimization of the technical scheme, the graphene heating wire processing system comprises a graphite mechanism, wherein the graphite mechanism comprises a bidirectional threaded rod I, a sliding cylinder I, sliding columns I, conical rotating wheels I and a graphite cylinder, the bidirectional threaded rod I is rotatably connected to a device frame, two ends of the bidirectional threaded rod I are respectively connected with the sliding cylinder I through threads, the thread turning directions of two ends of the bidirectional threaded rod I are opposite, the sliding columns I are respectively and slidably connected into the two sliding cylinders I, compression springs I are fixedly connected between the sliding columns I and the sliding cylinders I, the conical rotating wheels I are rotatably connected between the two sliding columns I, the graphite cylinder is clamped between the two conical rotating wheels I, and the two sliding cylinders I are respectively and slidably connected to a sliding track.

According to the further optimization of the technical scheme, the graphene heating wire processing system comprises a moving mechanism, a moving motor, a telescopic mechanism I and a mounting support II, wherein the moving mechanism is fixedly connected to the upper end of a device frame, the moving motor is fixedly connected to the moving frame, an output shaft of the moving motor is connected with the telescopic mechanism I through threads, the telescopic mechanism I is connected to the moving frame in a sliding mode, and the telescopic end of the telescopic mechanism I is fixedly connected with the mounting support II.

As a further optimization of the technical scheme, the graphene heating wire processing system comprises an adhesion mechanism I, two bidirectional threaded rods II, two sliding cylinders II, two sliding columns II, two conical rotating wheels II, a rubber belt cylinder I, a rubber belt cylinder II, a storage motor I, a telescopic mechanism II and a supporting bottom plate I, wherein the two bidirectional threaded rods II are rotatably connected to a mounting bracket II, the thread turning directions of two ends of each bidirectional threaded rod II are opposite, two ends of each two bidirectional threaded rod II are respectively connected with the corresponding sliding cylinder II through threads, the sliding column II is slidably connected in each sliding cylinder II, a compression spring II is fixedly connected between each sliding column II and each sliding cylinder II, each sliding column II is rotatably connected with a conical rotating wheel II, the rubber belt cylinder I and the rubber belt cylinder II are respectively clamped between the corresponding two conical rotating wheels II, and the rubber belt cylinder I and the rubber belt cylinder II are connected through the rubber belt I, accomodate output shaft fixed connection of motor I and take turns II on one of them toper, fixedly connected with supporting baseplate I is served in the flexible of telescopic machanism II, and II fixed connections of telescopic machanism are on installing support II, and I tops of supporting baseplate are on sticky tape I.

As a further optimization of the technical scheme, the graphene heating wire processing system comprises an adhesion mechanism II, two bidirectional threaded rods III, two sliding cylinders III, two sliding columns III, two conical rotating wheels III, a rubber belt cylinder IV, a storage motor II, a telescopic mechanism III and a supporting base plate II, wherein the two bidirectional threaded rods III are respectively connected to a mounting bracket I in a rotating mode, the rotating directions of threads at two ends of each bidirectional threaded rod III are opposite, two ends of each bidirectional threaded rod III are respectively connected with the corresponding sliding cylinder III through threads, the sliding column III is respectively connected to each sliding cylinder III in a sliding mode, a compression spring II is fixedly connected between each sliding column III and each sliding cylinder III, each sliding column III is respectively connected to each conical rotating wheel III in a rotating mode, the rubber belt cylinder III and the rubber belt cylinder IV are respectively clamped between the two corresponding conical rotating wheels, and the rubber belt cylinder III and the rubber belt cylinder IV are connected through the rubber belt II, accomodate output shaft fixed connection of motor II and rotate on wheel III at one of them toper, fixedly connected with supporting baseplate II is served in telescopic machanism III's flexible, and telescopic machanism III fixed connection is on installing support I, and II tops of supporting baseplate are on sticky tape II.

According to the further optimization of the technical scheme, the graphene heating wire processing system comprises a wire forming frame I, a wire forming motor I, a telescopic mechanism IV, a clamping frame I, a clamping plate I, a clamping threaded rod I and a base I, wherein the wire forming frame I is fixedly connected to a device frame, the wire forming frame I is fixedly connected with the wire forming motor I, an output shaft of the wire forming motor I is connected with the telescopic mechanism IV through threads, a telescopic end of the telescopic mechanism IV is fixedly connected with the clamping frame I, the clamping frame I is internally slidably connected with two clamping plates I, the two clamping threaded rods I are rotatably connected to the two clamping plates I, the two clamping threaded rods I are connected to the clamping frame I through threads, and the base I is clamped between the two clamping plates I.

According to the further optimization of the technical scheme, the graphene heating wire processing system comprises a wire forming frame II, a wire forming motor II, a telescopic mechanism V, a clamping frame II, a clamping plate II, a clamping threaded rod II and a substrate II, wherein the wire forming frame II is fixedly connected to a device frame, the wire forming frame II is fixedly connected with the wire forming motor II, an output shaft of the wire forming motor II is connected with the telescopic mechanism V through a thread, a telescopic end of the telescopic mechanism V is fixedly connected with the clamping frame II, the clamping frame II is connected with the two clamping plates II in a sliding mode, the two clamping threaded rods II are rotatably connected to the two clamping plates II, the two clamping threaded rods II are connected to the clamping frame II through threads, and the substrate II is clamped between the two clamping plates II.

A graphene heating wire processing method comprises the following steps:

the method comprises the following steps: the graphite barrel is clamped between the two conical rotating wheels I, and the adhesion mechanism I is used for preliminarily adhering graphite on the graphite barrel;

step two: the moving mechanism drives the adhesion mechanism I to move, and the adhesion mechanism I and the adhesion mechanism II are contacted for multiple times to further adhere graphite on the adhesion mechanism I;

step three: the moving mechanism drives the adhesion mechanism I to move, and the filamentation mechanism I is contacted with the adhesion mechanism I, so that graphene is formed on the filamentation mechanism I;

step four: the filamentation mechanism II contacts with the filamentation mechanism I, differential motion is carried out between the filamentation mechanism II and the filamentation mechanism I, the filamentation mechanism II and the filamentation mechanism I generate relative motion, and graphene is coiled into graphene wires.

The graphene heating wire processing system and method have the beneficial effects that:

according to the graphene heating wire processing system and method, a graphite barrel can be clamped between two conical rotating wheels I, and an adhesion mechanism I is used for preliminarily adhering graphite on the graphite barrel; the moving mechanism drives the adhesion mechanism I to move, and the adhesion mechanism I and the adhesion mechanism II are contacted for multiple times to further adhere graphite on the adhesion mechanism I; the moving mechanism drives the adhesion mechanism I to move, and the filamentation mechanism I is contacted with the adhesion mechanism I, so that graphene is formed on the filamentation mechanism I; the filamentation mechanism II contacts with the filamentation mechanism I, differential motion is carried out between the filamentation mechanism II and the filamentation mechanism I, the filamentation mechanism II and the filamentation mechanism I generate relative motion, and graphene is coiled into graphene wires.

Drawings

The invention is described in further detail below with reference to the accompanying drawings and specific embodiments.

In the description of the present invention, it should be noted that the terms "center", "longitudinal", "lateral", "up", "down", "front", "back", "left", "right", "top", "bottom", "inner", "outer" and "upright", etc., indicate orientations or positional relationships based on those shown in the drawings, and are only for convenience of description and simplicity of description, but do not indicate or imply that the referred device or element must have a specific orientation, be constructed and operated in a specific orientation, and thus, should not be construed as limiting the present invention.

In the description of the present invention, it should be noted that unless otherwise explicitly stated or limited, the terms "mounted," "connected," and "connected" are to be construed broadly, and may be, for example, fixedly connected, detachably connected, or integrally connected, directly or indirectly connected through an intermediate medium, and may be a communication between two members. The specific meanings of the above terms in the present invention can be understood in specific cases to those skilled in the art.

In addition, in the description of the present invention, the meaning of "a plurality", and "a plurality" is two or more unless otherwise specified.

Fig. 1 is a schematic view of the overall structure of a graphene heating wire processing system according to the present invention;

FIG. 2 is a schematic diagram of the overall structure of the graphene heating wire processing system according to the invention;

FIG. 3 is a schematic view of the device support structure of the present invention;

FIG. 4 is a schematic structural view of the graphite mechanism of the present invention;

FIG. 5 is a schematic view of the moving mechanism of the present invention;

FIG. 6 is a schematic view of the structure of the adhering means I of the present invention;

FIG. 7 is a schematic structural view of the adhesion mechanism II of the present invention;

FIG. 8 is a schematic structural view of a filamentation mechanism I of the invention;

FIG. 9 is a schematic structural diagram of a filamentation mechanism II of the invention.

In the figure: a device holder 1; a device frame 101; a mounting bracket I102; a slide rail 103; a graphite mechanism 2; a bidirectional threaded rod I201; a sliding cylinder I202; a sliding column I203; a conical rotating wheel I204; a graphite cylinder 205; a moving mechanism 3; a moving frame 301; a moving motor 302; a telescoping mechanism I303; a mounting bracket II 304; an adhesion mechanism I4; a bidirectional threaded rod II 401; a sliding cylinder II 402; a sliding column II 403; a conical rotating wheel II 404; a tape cartridge I405; a tape cartridge II 406; a storage motor I407; a telescoping mechanism II 408; a support base plate I409; an adhesion mechanism II 5; a bidirectional threaded rod III 501; a sliding cylinder III 502; a sliding column III 503; a conical rotating wheel III 504; a tape cartridge III 505; a tape cartridge IV 506; a storage motor II 507; a telescoping mechanism III 508; a support base plate II 509; a filamentation mechanism I6; a filament forming frame I601; a filamentation motor I602; a telescoping mechanism IV 603; a clamping frame I604; a clamping plate I605; clamping a threaded rod I606; a substrate I607; a filamentation mechanism II 7; a filament forming frame II 701; a filamentation motor II 702; a telescoping mechanism V703; a clamping frame II 704; a clamping plate II 705; clamping a threaded rod II 706; substrate II 707.

Detailed Description

The present invention will be described in further detail with reference to the accompanying drawings.