A high-viscosity carbon nanotube conductive slurry premixing device and premixing method

Abstract

The invention relates to the technical field of high-viscosity carbon nanotube conductive slurry premixing, and discloses a high-viscosity carbon nanotube conductive slurry premixing device and a premixing method thereof. The device comprises a high-viscosity carbon nanotube conductive slurry premixing device, comprising a premixing tank and a premixing rod rotatably and lifted and arranged in the premixing tank, a lifting rod is arranged on one side of the premixing tank, a top cover is fixed to the telescopic end of the lifting rod, and is located above the premixing tank and the premixing rod, and also comprises: a splash-proof part, which is fixed to a side of the top cover close to the premixing tank and is located on the outside of the premixing rod; a material making part, which is arranged through the splash-proof part; the invention arranges the splash-proof part and the material making part, the splash-proof part stores different premixes and prevents splashing, the tension part in the material making part pulls the pulling part, and the opening at the corresponding position of the splash-proof part is opened by means of the auxiliary opening part, so that the premix is ​​discharged into the premixing tank, this design realizes the filling of premixes in batches and at different times, improves the service life and stability of the equipment, and reduces the production cost at the same time.

Description

Technical Field

[0001] The invention relates to the technical field of high-viscosity carbon nanotube conductive slurry premixing, and in particular to a high-viscosity carbon nanotube conductive slurry premixing device and a premixing method thereof. Background Art

[0002] In the field of high-viscosity carbon nanotube conductive slurry premixing technology, high-viscosity carbon nanotube conductive slurry is a mixed material based on carbon nanotubes, which is mainly made by mixing premixes such as carbon nanotubes, dispersants, nanosilver complexes and solvents. The staff needs to inject the carbon nanotubes, dispersants, nanosilver complexes and solvents into the premixing tank in batches as needed, and drive the premixing rod to rotate in the premixing tank through the transmission shaft to perform premixing. The premixed conductive slurry has a certain viscosity. However, the traditional high-viscosity carbon nanotube conductive slurry premixing device still has some problems during the working process.

[0003] For example, in actual operation, electrical equipment is needed to control the injection of premix into the inner side of the top cover. The production cost of the electrical equipment is high, and it involves various electrical power and electrical components. It is not stable enough and its service life is difficult to predict. Summary of the invention

[0004] The present invention provides a high-viscosity carbon nanotube conductive slurry premixing device, which can manually control the premix to be injected into a premixing tank in batches and at different times according to production needs, thereby reducing production costs, improving operation stability and prolonging service life.

[0005] In order to solve the above technical problems, the technical solution of the present invention is as follows:

[0006] In a first aspect, a high-viscosity carbon nanotube conductive slurry premixing device is characterized by comprising a premixing tank and a premixing rod that is rotatable and lifted in the premixing tank, a lifting rod is provided on one side of the premixing tank, a top cover is fixed to the telescopic end of the lifting rod, and is located above the premixing tank and the premixing rod, and further comprising:

[0007] The splash-proof part is fixed on the side of the top cover close to the premixing tank and is located outside the premixing rod to prevent the premix from splashing outside the premixing tank;

[0008] A material preparation part is arranged through the splash-proof part and is located outside the splash-proof part to arrange the premix into the premix tank;

[0009] The heat cleaning part is arranged inside the splash-proof part and connected with the material making part and the premixing rod to generate heat to heat the premixing rod and the conductive slurry and clean them;

[0010] The material making part includes a sealing piece and a pulling piece, wherein the sealing piece is arranged through the splash-proof part, the pulling piece is connected to the sealing piece, and the pulling piece passes through the splash-proof part and is located outside the splash-proof part, so as to pull the sealing piece to discharge the premix into the premix tank;

[0011] The heat cleaning part includes a preheating part and a moving cleaning part. The preheating part is connected to the premixing rod and is located outside the premixing rod. The moving cleaning part is connected to the preheating part and the pulling and moving part to push the preheating part to move and wipe and clean the premixing rod.

[0012] Further, the splash guard comprises:

[0013] A transparent cover is fixed on the side of the top cover close to the premixing tank;

[0014] The bottom cover is fixed to the end of the transparent cover away from the top cover and covers the premixing tank;

[0015] There are two first oblique cylinders, which penetrate the transparent cover and are symmetrically fixed, and are fixedly connected to the top cover and the bottom cover;

[0016] There are two second inclined cylinders, which penetrate the transparent cover and are symmetrically fixed, and are located close to the transparent cover and the lifting rod and away from the first inclined cylinder.

[0017] Further, the sealing member comprises:

[0018] A connecting pipe is provided through the first inclined cylinder and the second inclined cylinder at one end away from the premixing tank and is located outside the top cover;

[0019] A discharge port is provided through the first inclined cylinder and the second inclined cylinder on a side close to the premixing rod;

[0020] L blocks, including four groups, each group having two L blocks, each group of L blocks being fixed on the first inclined cylinder and the second inclined cylinder and being located on the inner sides of the first inclined cylinder and the second inclined cylinder;

[0021] The rubber sheets are provided in four groups, each group consisting of two rubber sheets. A group of rubber sheets is placed inside the first inclined cylinder and the second inclined cylinder respectively, corresponding to the position of the discharge port and fitting with the first inclined cylinder and the second inclined cylinder;

[0022] The opening-assisting part is arranged above the rubber plate.

[0023] Further, the opening-assisting part comprises:

[0024] The guide groove is provided on the side of the rubber plate away from the premixing tank and is located outside the L block;

[0025] A first spring, one end of which is fixedly connected to the L block, and the other end of which is fixedly connected to the rubber plate, and is located inside the guide groove;

[0026] The inclined plates have four groups, each group consists of two inclined plates, and each group of inclined plates is symmetrically fixed above each group of rubber plates;

[0027] A through opening is opened through the inclined plate.

[0028] Further, the pulling member comprises:

[0029] A herringbone rod is placed on the inner side of each set of inclined plates through the opening and above the guide groove;

[0030] A second spring, one end of which is fixed to the end of the herringbone rod away from the rubber plate;

[0031] A guide cover is fixed to the other end of the second spring, is located outside the second spring, and is fixedly connected to the first inclined cylinder and the second inclined cylinder;

[0032] The tension part penetrates the connecting pipe and is symmetrically arranged on the outside of the transparent cover and is located between the first inclined cylinder and the second inclined cylinder.

[0033] Further, the tension part comprises:

[0034] A pull rope movably passes through the guide cover and the second spring arrangement, and one end of the pull rope is fixedly connected to the herringbone rod;

[0035] There are two arc support plates, which are symmetrically arranged on the outside of the transparent cover and fixedly connected to the first inclined cylinder and the second inclined cylinder;

[0036] The support plate is fixed to the other end of the pull rope and is placed through the arc support plate;

[0037] There are four pull ears, two of which form a group, and one end of each group of pull ears is fixed to a side of the support plate away from the transparent cover;

[0038] A first semicircular sleeve is fixed to the other end of the pull ear close to the second inclined cylinder;

[0039] The second semicircular sleeve is fixed to the other end of the pull ear close to the first inclined cylinder.

[0040] Further, the preheating element comprises:

[0041] The transmission shaft is rotatably installed through the top cover and is fixedly connected to the end of the premixing rod away from the premixing tank;

[0042] The steel grinding disc is fixedly mounted on the outer side of the transmission shaft and is located above the premixing rod;

[0043] The semicircular ring is symmetrically arranged on the outside of the steel grinding disc and located on the inside of the transparent cover with a gap between the semicircular ring and the steel grinding disc;

[0044] The copper arc plate is fixed on the end of the semicircular ring close to the premixing tank.

[0045] Further, the cleaning member comprises:

[0046] A reed, one end of which is fixed in the top cover;

[0047] A multi-stage electric rod, the telescopic end of which is fixedly connected to the semicircular ring, the fixed end of which is connected to the other end of the spring, and can be translated to penetrate the side of the top cover close to the premixing tank;

[0048] The socket is provided on the side of the semicircular ring away from the steel grinding disc;

[0049] The arc plug plate is arranged on the outside of the semicircular ring, movably penetrates the transparent cover, and is located at a position corresponding to the socket;

[0050] A push rod, one end of which is fixed on the outer side of the arc insert plate, and the other end of which moves through the support plate and is connected with the first semicircular sleeve and the second semicircular sleeve in a guiding manner;

[0051] The locking and clearing parts are arranged on the semicircular ring, the supporting plate and the push rod.

[0052] Further, the lock clearing parts include:

[0053] The brush plate is fixed on the side of the semicircular ring away from the copper arc plate;

[0054] A cleaning brush is fixed on the side of the brush plate close to the transmission shaft;

[0055] The L hole is provided on a side of the support plate away from the transparent cover and is connected to the inner side of the support plate;

[0056] A rotating sleeve rod is rotatably sleeved on the outer side of the push rod and is located in the direction where the first semicircular sleeve and the second semicircular sleeve are close to the transparent cover;

[0057] The square collar is fixed on the outside of the rotating sleeve rod and corresponds to the position of the L hole.

[0058] In a second aspect, a method for premixing a high-viscosity carbon nanotube conductive slurry comprises:

[0059] Injecting different high-viscosity carbon nanotube conductive slurry premixes into the first inclined cylinder and the second inclined cylinder arranged in the splash-proof part for storage respectively;

[0060] The tension part provided in the pull-and-slide part in the material-making part is operated, and the herringbone rod in the pull-and-slide part is pulled through the pull ears and the pull rope in the tension part, and the herringbone rod is used to push the inclined plate in the opening-assisting part, so that the inclined plate pushes the rubber plate in the sealing part to move, and then the discharge port is opened to discharge the premixed material stored in the first inclined cylinder or the second inclined cylinder into the premixing tank;

[0061] The power is transmitted to the premixing rod through the transmission shaft, so that the premixing rod rotates and stirs in the premixing tank to achieve premixing of the premixed materials. After the premixing is completed, the lifting rod is controlled to extend to move the premixing rod out of the premixing tank, and the high-viscosity carbon nanotube conductive slurry that has been premixed is taken out of the premixing tank;

[0062] Push the push rod in the cleaning part as needed to push the semicircular ring in the preheating part to fit with the rotating steel grinding disc. At the same time, turn the rotating sleeve rod in the cleaning lock part to make the square sleeve ring fit with the L hole and fit on the positioning push rod on the support plate to frictionally heat the steel grinding disc and the copper arc plate.

[0063] After heating the steel grinding disc and the copper arc plate, the square ring is moved out of the L hole, and then the multi-stage electric rod in the cleaning part is controlled to extend, and the preheating part is controlled to move downward to the outside of the premixing rod to heat the premixing rod and the high-viscosity carbon nanotube conductive slurry adhered to the premixing rod, so that it becomes thinner due to the heat, so that the cleaning brush in the cleaning part can continue to move downward to clean the high-viscosity carbon nanotube conductive slurry adhered to the premixing rod.

[0064] The above solution of the present invention includes at least the following beneficial effects:

[0065] By providing an anti-splashing part and a material-making part, the anti-splashing part is used to store different premixes, and to prevent the premixes or viscous carbon nanotube conductive slurry from splashing to the outside during mixing. The pulling part is pulled by the pulling part provided in the material-making part, so that the pulling part pulls the sealing part through the auxiliary opening part, and then opens the opening at the corresponding position of the anti-splashing part, so that the premixes at the corresponding position are discharged from the anti-splashing part into the premixing tank, thereby facilitating the filling of the premixes in batches and at different times, improving the service life and stability, and reducing the production cost. BRIEF DESCRIPTION OF THE DRAWINGS

[0066] Figure 1 A schematic diagram of the overall three-dimensional structure of a high-viscosity carbon nanotube conductive slurry premixing device provided in an embodiment of the present invention;

[0067] Figure 2 A schematic diagram of the three-dimensional structure of a premixing tank, a premixing rod, a top cover and a base assembly provided in an embodiment of the present invention;

[0068] Figure 3 A schematic diagram of the three-dimensional structure of a motor, a pulley, a premixing rod, a steel grinding disc and a copper arc plate assembly provided in an embodiment of the present invention;

[0069] Figure 4 A schematic diagram of the three-dimensional structure of the lifting rod, the base and the bracket combination provided in an embodiment of the present invention;

[0070] Figure 5 A schematic diagram of a three-dimensional structure of a transparent cover, a first inclined cylinder, a second inclined cylinder, a material preparation unit and a heat cleaning unit provided in an embodiment of the present invention;

[0071] Figure 6 The embodiment of the present invention provides Figure 5 Schematic diagram of the structure at A in FIG.

[0072] Figure 7 A schematic diagram of the three-dimensional structure of a cleaning brush, a multi-stage electric rod and a copper arc plate combination provided in an embodiment of the present invention;

[0073] Figure 8 A schematic diagram of a three-dimensional structure of a semicircular ring section and an arc insert plate combination provided by an embodiment of the present invention;

[0074] Fig. 9 A schematic diagram of the three-dimensional structure of a second inclined cylinder provided in an embodiment of the present invention;

[0075] Fig.10 A schematic diagram of a three-dimensional structure of a pull rope, a rubber plate, an inclined plate, a support plate and an arc plug plate combination provided in an embodiment of the present invention;

[0076] Fig.11 The embodiment of the present invention provides Fig.10 A three-dimensional exploded diagram of the structural schematic diagram combination at B in FIG.

[0077] Fig.12 A three-dimensional exploded view of a rubber plate, a herringbone rod, an inclined plate, a first spring, a second spring and a guide cover assembly provided in an embodiment of the present invention;

[0078] Fig.13 A schematic diagram of the three-dimensional structure of a push rod, an arc insert plate, a support plate and a third spring assembly provided in an embodiment of the present invention;

[0079] Fig.14 The invention provides a three-dimensional structure of a support plate, a push rod, a first semicircular sleeve, a second semicircular sleeve, a rotating sleeve rod and a square sleeve ring.

[0080] Description of reference numerals:

[0081] In the figure: 1, bracket; 2, machine base; 3, lifting rod; 4, bottom plate; 5, positioning frame; 6, premixing tank; 7, support ear; 8, top cover; 9, fixing frame; 10, fixing plate; 11, motor; 12, transmission shaft; 13, pulley; 14, belt; 15, premixing rod; 16, bottom cover; 17, transparent cover; 18, first inclined cylinder; 19, second inclined cylinder; 20, connecting pipe; 21, cover; 22, discharge port; 23, L block; 24, rubber plate; 25, guide groove; 26, first spring; 27, inclined plate; 28, through port; 29, herringbone Rod; 30, second spring; 31, guide cover; 32, pull rope; 33, arc support plate; 34, support and pull plate; 35, guide ring; 36, push rod; 37, guide port; 38, first semicircular sleeve; 39, second semicircular sleeve; 40, pull ear; 41, movable port; 42, reed; 43, multi-stage electric rod; 44, steel grinding disc; 45, semicircular ring; 46, copper arc plate; 47, brush plate; 48, cleaning brush; 49, socket; 50, arc plug plate; 51, push plate; 52, L hole; 53, rotating sleeve rod; 54, square sleeve ring; 55, third spring. DETAILED DESCRIPTION

[0082] The exemplary embodiments of the present invention will be described in more detail below with reference to the accompanying drawings. Although the exemplary embodiments of the present invention are shown in the accompanying drawings, it should be understood that the present invention can be implemented in various forms and should not be limited by the embodiments set forth herein. On the contrary, these embodiments are provided in order to enable a more thorough understanding of the present invention and to enable the scope of the present invention to be fully communicated to those skilled in the art.

[0083] like Figures 1 to 14 As shown, an embodiment of the present invention provides a high-viscosity carbon nanotube conductive slurry premixing device, comprising a premixing tank 6 and a premixing rod 15 that is rotatably and liftably arranged in the premixing tank 6, a lifting rod 3 is arranged on one side of the premixing tank 6, a top cover 8 is fixed to the telescopic end of the lifting rod 3, and is located above the premixing tank 6 and the premixing rod 15, and further comprises:

[0084] The splash-proof part is fixed to a side of the top cover 8 close to the premixing tank 6 and is located outside the premixing rod 15 to prevent the premix from splashing outside the premixing tank 6;

[0085] A material preparation part is arranged through the splash-proof part and is located outside the splash-proof part to arrange the premix into the premix tank 6;

[0086] The heat cleaning part is arranged inside the splash-proof part and connected with the material making part and the premixing rod 15 to generate heat to heat the premixing rod 15 and the conductive slurry and clean them;

[0087] The material making part includes a sealing member and a pulling member, the sealing member is arranged through the splash-proof part, the pulling member is connected to the sealing member, and the pulling member passes through the splash-proof part and is located outside the splash-proof part, so as to pull the sealing member to discharge the premixed material into the premixing tank 6;

[0088] The heat cleaning part includes a preheating part and a moving cleaning part. The preheating part is connected to the premixing rod 15 and is located outside the premixing rod 15. The moving cleaning part is connected to the preheating part and the pulling and moving part to push the preheating part to move and wipe and clean the premixing rod 15.

[0089] Specifically, the outer side of the lifting rod 3 is fixedly installed with a base 2, the outer side of the base 2 is fixed with a bracket 1, and the bracket 1 is located on the outer side of the premixing tank 6, the inner side of the bracket 1 is fixed with a bottom plate 4, and the bottom plate 4 is located below the premixing tank 6, the side of the base 2 close to the premixing tank 6 is fixed with a positioning frame 5, the outer side of the premixing tank 6 is symmetrically fixed with ears 7, the ears 7 are connected to the positioning frame 5 by means of fixing components, the outer side of the premixing tank 6 is symmetrically connected with rollers, and the rollers are placed on the bottom plate 4, the bracket 1 can provide stable support for the bottom plate 4 and the base 2, the bottom plate 4 can provide support for the premixing tank 6 through the rollers, and the base 2 can stably support the lifting rod 3 and the positioning frame 5, the positioning frame 5 cooperates with the fixing components and the ears 7 to position the premixing tank 6, the lifting rod 3 can provide stable support for the top cover 8, and can push the top cover 8 to move up and down;

[0090] A fixing frame 9 is fixed on the inner side of the top cover 8, and a fixing plate 10 is connected to the fixing frame 9 through a fixing component. A motor 11 is fixed to a side of the fixing plate 10 close to the machine base 2, and the driving end of the motor 11 rotates and penetrates the fixing plate 10. A pulley 13 is fixedly mounted on the outer side of the transmission shaft 12, and the pulley 13 and the outer side of the driving end of the motor 11 are connected to each other and are mounted with a belt 14. The top cover 8 can provide protection for its inner facilities, and can provide rotation support for the transmission shaft 12, and stably support the fixing frame 9. The fixing frame 9 can provide support for the fixing plate 10, so that the fixing plate 10 stably supports the motor 11, and the motor 11 can use the driving end to push the belt 14, so that the belt 14 uses external force to push the pulley 13 to rotate, and then the pulley 13 drives the transmission shaft 12 to rotate together.

[0091] In the actual application process of this embodiment: the staff can use the roller to push the premixing tank 6 onto the bottom plate 4 according to the actual needs, and use the fixing component to penetrate the support ear 7 and connect it with the positioning frame 5 to position the premixing tank 6. At the same time, the staff needs to control the extension of the lifting rod 3 to make the lifting rod 3 push the top cover 8 to move upward, so that the top cover 8 drives the premixing rod 15 to move upward through the transmission shaft 12, so as to prevent the premixing rod 15 from affecting the movement of the premixing tank 6. After the premixing tank 6 is moved to the bottom plate 4 and positioned, it is necessary to inject the premixed material into the inner side of the premixing tank 6 in batches and at different times, and then control the lifting and lowering rods 3 to extend and push the top cover 8 to move upward. The rod 3 contracts, driving the premixing rod 15 to be inserted into the inner side of the premixing tank 6 through the top cover 8 and the transmission shaft 12, and starting the motor 11 with the support of the fixing frame 9 and the fixing plate 10, so that the motor 11 drives the belt 14 to rotate using the driving end, so that the belt 14 uses the friction force to push the pulley 13 to rotate under the action of external force, so that the pulley 13 uses the rotational power to drive the transmission shaft 12 to rotate under the support of the top cover 8, and at the same time, the transmission shaft 12 will drive the premixing rod 15 to rotate inside the premixing tank 6, so that the premixing rod 15 can use the rotational power to promote the mixing of the premix in the premixing tank 6.

[0092] As a preferred embodiment of the present invention, the splash guard comprises:

[0093] A transparent cover 17 is fixed to a side of the top cover 8 close to the premixing tank 6;

[0094] The bottom cover 16 is fixed to the end of the transparent cover 17 away from the top cover 8 and covers the premixing tank 6;

[0095] There are two first inclined cylinders 18, which penetrate the transparent cover 17 and are symmetrically fixed, and are fixedly connected to the top cover 8 and the bottom cover 16;

[0096] There are two second inclined cylinders 19 , which penetrate the transparent cover 17 and are symmetrically fixed thereto. The two second inclined cylinders 19 are located close to the transparent cover 17 and the lifting rod 3 and away from the first inclined cylinder 18 .

[0097] Specifically, the top cover 8 can provide support for the transparent cover 17, so that the transparent cover 17 can stably support the first inclined cylinder 18, the second inclined cylinder 19 and the bottom cover 16, and the first inclined cylinder 18, the second inclined cylinder 19 and the bottom cover 16 are made of transparent material, which can facilitate the staff to observe the working conditions in the premixing tank 6 and the amount of premix in the first inclined cylinder 18 and the second inclined cylinder 19.

[0098] In actual application of this embodiment, when the staff controls the extension and retraction of the lifting rod 3, the transparent cover 17, the bottom cover 16, the first inclined cylinder 18 and the second inclined cylinder 19 will be lifted and lowered together through the top cover 8. The first inclined cylinder 18 and the second inclined cylinder 19 have a certain inclination angle and can provide storage space for the premix. When the staff controls the lifting rod 3 to retract, so that the top cover 8 drives the premixing rod 15 to be inserted into the premixing tank 6 through the transmission shaft 12, the top cover 8 will drive the first inclined cylinder 18, the second inclined cylinder 19 and the bottom cover 16 to move downward together through the transparent cover 17, so that the bottom cover 16 is in contact with the side of the premixing tank 6 close to the top cover 8. At the same time, the bottom cover 16 will cooperate with the transparent cover 17, the first inclined cylinder 18 and the second inclined cylinder 19 to cover the side of the premixing tank 6 close to the top cover 8 and the premixing rod 15, thereby providing protection for the premixing rod 15 and the opening of the premixing tank 6 to prevent the premix in the premixing tank 6 from splashing to the outside during mixing.

[0099] As a preferred embodiment of the present invention, the sealing member comprises:

[0100] The connecting pipe 20 passes through the first inclined cylinder 18 and the second inclined cylinder 19 and is arranged at an end away from the premixing tank 6 and is located outside the top cover 8;

[0101] The discharge port 22 is formed through the first inclined cylinder 18 and the second inclined cylinder 19 and is provided on a side close to the premixing rod 15;

[0102] The L blocks 23 have four groups, each group has two L blocks 23, and each group of L blocks 23 is fixed on the first inclined cylinder 18 and the second inclined cylinder 19, and is located on the inner side of the first inclined cylinder 18 and the second inclined cylinder 19;

[0103] The rubber sheets 24 are provided in four groups, each group consisting of two rubber sheets 24. A group of rubber sheets 24 is placed inside the first inclined cylinder 18 and the second inclined cylinder 19, respectively, and corresponds to the position of the discharge port 22 and fits the first inclined cylinder 18 and the second inclined cylinder 19;

[0104] The opening-assisting part is arranged above the rubber plate 24 .

[0105] Specifically, a cover 21 is installed at one end of the connecting pipe 20 away from the premixing tank 6, and the connecting pipe 20 can provide a channel for the premix to enter the first inclined cylinder 18 or the second inclined cylinder 19, and the first inclined cylinder 18 and the second inclined cylinder 19 can provide a space for opening the discharge port 22, and the first inclined cylinder 18 and the second inclined cylinder 19 can provide a storage space for the premix, and the discharge port 22 can provide a discharge channel for the premix in the first inclined cylinder 18 and the second inclined cylinder 19, and the first inclined cylinder 18 and the second inclined cylinder 19 can firmly support the L block 23, and the rubber plate 24 can fit with the inner wall of the first inclined cylinder 18 and the second inclined cylinder 19 and cover the discharge port 22, and use the rubber material to play a sealing role, and close the discharge port 22 to prevent the premix from being discharged from the discharge port 22.

[0106] The opening parts include:

[0107] The guide groove 25 is provided on a side of the rubber plate 24 away from the premixing tank 6 and is located outside the L block 23;

[0108] A first spring 26, one end of which is fixedly connected to the L block 23, and the other end of which is fixedly connected to the rubber plate 24, and is located inside the guide groove 25;

[0109] The inclined plates 27 are provided in four groups, each group consists of two inclined plates 27, and each group of inclined plates 27 is symmetrically fixed above each group of rubber plates 24;

[0110] The through opening 28 is formed through the inclined plate 27 .

[0111] Specifically, the rubber plate 24 can provide an opening space for the guide groove 25, and the guide groove 25 is guided by the L plate. The guide groove 25 can enable the rubber plate 24 to move along the L block 23, and the rubber plate 24 can provide support for the first spring 26. The L block 23 can be connected to the rubber plate 24 through the first spring 26. The first spring 26 has a certain elasticity and can be stretched and deformed under the action of external force. It will rebound after the external force disappears. The rubber plate 24 can provide support for the inclined plate 27. The inclined plate 27 has a certain inclination angle and curvature, and can provide an opening space for the through hole 28. The through hole 28 can provide a through channel for the herringbone rod 29.

[0112] The pull parts include:

[0113] A herringbone rod 29, passing through the through opening 28, is placed on the inner side of each set of inclined plates 27 and is located above the guide groove 25;

[0114] A second spring 30, one end of which is fixed to the end of the herringbone rod 29 away from the rubber plate 24;

[0115] The guide cover 31 is fixed to the other end of the second spring 30 and is located outside the second spring 30 and is fixedly connected to the first inclined cylinder 18 and the second inclined cylinder 19;

[0116] The tension component passes through the connecting tube 20 and is symmetrically arranged on the outside of the transparent cover 17 and is located between the first inclined tube 18 and the second inclined tube 19 .

[0117] Specifically, the herringbone rod 29 is fitted with the inclined plate 27 and is located between the inclined plate 27 and the rubber plate 24. The herringbone rod 29 has a certain curvature and can provide support for the second spring 30. The first inclined cylinder 18 and the second inclined cylinder 19 can provide stable support for the guide cover 31. The guide cover 31 can provide support and moving space for the end of the second spring 30 away from the herringbone rod 29, and can provide a through channel for the pull rope 32.

[0118] Tension parts include:

[0119] A pull rope 32 movably passes through the guide cover 31 and the second spring 30 , and one end of the pull rope 32 is fixedly connected to the herringbone rod 29 ;

[0120] There are two arc support plates 33, which are symmetrically arranged on the outside of the transparent cover 17 and fixedly connected to the first inclined cylinder 18 and the second inclined cylinder 19;

[0121] The support plate 34 is fixed to the other end of the pull rope 32 and is placed through the arc support plate 33;

[0122] There are four pull ears 40, with two pull ears 40 forming a group, and one end of each group of pull ears 40 is fixed to a side of the support plate 34 away from the transparent cover 17;

[0123] A first semicircular sleeve 38 is fixed to the other end of the pull ear 40 close to the second inclined cylinder 19;

[0124] The second semicircular sleeve 39 is fixed to the other end of the pull ear 40 close to the first inclined cylinder 18 .

[0125] Specifically, a third spring 55 is fixed to a side of the support plate 34 close to the transparent cover 17, and the third spring 55 movably penetrates the arc support plate 33 and is connected to the transparent cover 17. The herringbone rod 29 can provide support for one end of the pull rope 32, and the guide cover 31 can provide a resisting and limiting effect for the pull rope 32. The first inclined cylinder 18 and the second inclined cylinder 19 can provide support for the arc support plate 33. The arc support plate 33 can provide a through channel and an interlocking support for the support plate 34. The support plate 34 can provide support for the pull ear 40, and the pull ear 40 can facilitate pulling the support plate 34. The pull ear 40 can provide support for the first semicircular sleeve 38 and the second semicircular sleeve 39. The first semicircular sleeve 38 and the second semicircular sleeve 39 can cooperate with the push rod 36 and the guide mouth 37 to provide a moving guiding effect for the pull ear 40.

[0126] In actual application of this embodiment, the staff can open the cover 21 according to actual needs and inject different premixes into the inner side of the first inclined cylinder 18 or the second inclined cylinder 19 from the connecting pipe 20. The staff can pull the pull ear 40 in the direction away from the transparent cover 17 under the support of the arc support plate 33 according to actual needs, so that the pull ear 40 drives the first semicircular sleeve 38 or the second semicircular sleeve 39 to move along the guide opening 37 away from the transparent cover 17 under the action of external force, and then the first semicircular sleeve 38 or the second semicircular sleeve 39 can move with the pull ear 40 and pull the support plate 34 close to the first semicircular sleeve 38 or the second semicircular sleeve 39 to move in the direction away from the transparent cover 17, so that the support plate 34 is separated from the arc support plate 33 under the action of external force, and the pull rope 32 connected to it is pulled by external force during the movement, so that the pull rope 32 pulls the herringbone rod 29 upward under the action of external force and the support, resistance and limit of the discharge port 22 and the guide cover 31, so that the herringbone rod 29 is moved along The guide cover 31 moves upward and cooperates with the guide cover 31 to squeeze the second spring 30 to contract and store energy. At the same time, the herringbone rod 29 will use external force and its own curvature to push the inclined plate 27 during the upward movement, so that the inclined plate 27 expands and moves in the direction away from the herringbone rod 29. At the same time, the inclined plate 27 will drive the rubber plate 24 to move together, so that the rubber plate 24 pulls one end of the first spring 26 during the movement, so that the first spring 26 is stretched and stored under the support of the L block 23, so that the rubber plate 24 can be in the L block 23 and the guide groove 25 are guided to open the discharge port 22, so that the premix in the first inclined cylinder 18 or the second inclined cylinder 19 at the corresponding position can be discharged to the inner side of the premix tank 6 through the discharge port 22, so as to facilitate the time-sharing and batch filling of the premix into the premix tank 6, abandoning the electric components to reduce the production cost, improve the stability and life of use, and when the support plate 34 is pulled, the third spring 55 will be pulled at the same time, so that the third spring 55 is stretched and stored under the action of external force and the support of the transparent cover 17;

[0127] When the filling is completed, the staff needs to loosen the pull ear 40. At this time, the third spring 55 will use the rebound force to pull the support plate 34 closer to the transparent cover 17, and be connected with the arc support plate 33, so that the arc support plate 33 provides support for the support plate 34. At the same time, the second spring 30 will use the rebound force to push the herringbone rod 29 downward with the support of the guide cover 31, so that the herringbone rod 29 uses the external force to pull the pull rope 32 to move together, so that the herringbone rod 29 moves in the direction close to the rubber plate 24, and at the same time releases the thrust on the inclined plate 27. At this time, the first spring 26 will use the rebound force to pull the rubber plate 24 and the inclined plate 27 in the direction close to the center line of the herringbone rod 29 with the support of the L block 23, so that the rubber plate 24 fits the closed discharge port 22 to prevent the premix from being discharged.

[0128] As a preferred embodiment of the present invention, the preheating unit comprises:

[0129] The transmission shaft 12 is rotatably installed through the top cover 8 and is fixedly connected to an end of the premixing rod 15 away from the premixing tank 6;

[0130] The steel grinding disc 44 is fixedly mounted on the outer side of the transmission shaft 12 and is located above the premixing rod 15;

[0131] The semicircular ring 45 is symmetrically arranged on the outside of the steel grinding disc 44 and located on the inside of the transparent cover 17, with a gap between the semicircular ring 45 and the steel grinding disc 44;

[0132] The copper arc plate 46 is fixed to one end of the semicircular ring 45 close to the premixing tank 6 .

[0133] Specifically, the transmission shaft 12 can provide stable support for the steel grinding disc 44, the fixed frame 9 can provide an opening space for the movable opening 41, the movable opening 41 can provide a moving space for the reed 42 and the multi-stage electric rod 43, the multi-stage electric rod 43 can provide support for the semi-circular ring 45, the semi-circular ring 45 can stably support the copper arc plate 46, the semi-circular ring 45 and the steel grinding disc 44 are made of steel, and the copper arc plate 46 has a high thermal conductivity.

[0134] The removal items include:

[0135] A reed 42, one end of which is fixed in the top cover 8;

[0136] The multi-stage electric rod 43 has a telescopic end fixedly connected to the semicircular ring 45 and a fixed end connected to the other end of the spring 42, and can be translated to penetrate the top cover 8 near the side of the premixing tank 6;

[0137] The socket 49 is provided on a side of the semicircular ring 45 away from the steel grinding disc 44;

[0138] The arc plug plate 50 is arranged outside the semicircular ring 45, and movably passes through the transparent cover 17 and is located at a position corresponding to the socket 49;

[0139] A push rod 36, one end of which is fixed to the outside of the arc insert plate 50, and the other end of which moves through the support plate 34 and is guided and connected with the first semicircular sleeve 38 and the second semicircular sleeve 39;

[0140] The locking parts are arranged on the semicircular ring 45 , the supporting plate 34 and the push rod 36 .

[0141] Specifically, a guide ring 35 is fixed on the inner side of the support plate 34, and the push rod 36 movably passes through the guide ring 35. The spring leaf 42 can provide support for the multi-stage electric rod 43 under the support of the fixed frame 9, and the multi-stage electric rod 43 can be extended and retracted under the operation of the staff. The semicircular ring 45 can provide an opening space for the socket 49, and the socket 49 can provide an engagement space for the arc plug plate 50, so that the arc plug plate 50 can contact the semicircular ring 45 and push the semicircular ring 45 to move, and support the semicircular ring 45 by the engagement action. The guide ring 35 can provide movement guidance and support for the push rod 36 under the support of the support plate 34.

[0142] Lock cleaning parts include:

[0143] A brush plate 47 is fixed on a side of the semicircular ring 45 away from the copper arc plate 46;

[0144] A cleaning brush 48 is fixed to a side of the brush plate 47 close to the transmission shaft 12;

[0145] The L hole 52 is formed on a side of the support plate 34 away from the transparent cover 17 and communicates with the inner side of the support plate 34;

[0146] The rotating sleeve rod 53 is rotatably sleeved on the outer side of the push rod 36 and is located in the direction where the first semicircular sleeve 38 and the second semicircular sleeve 39 are close to the transparent cover 17;

[0147] A square collar 54 is fixed on the outer side of the rotating sleeve rod 53 and corresponds to the position of the L hole 52;

[0148] A push plate 51 is fixed to one end of the push rod 36 away from the transparent cover 17 , a guide opening 37 is formed inside the push rod 36 , and a first semicircular sleeve 38 and a second semicircular sleeve 39 are disposed through the guide opening 37 .

[0149] In the actual application of this embodiment, the semicircular ring 45 can provide support for the brush plate 47, so that the brush plate 47 can stably support the cleaning brush 48. The cleaning brush 48 is elastic, can be deformed under the action of external force, and has good heat resistance. The support plate 34 can provide an opening space for the L hole 52, and the push rod 36 can provide rotational support for the rotating sleeve rod 53. The rotating sleeve rod 53 can stably support the square sleeve ring 54. The L hole 52 can provide a moving space for the square sleeve ring 54, so that the square sleeve ring 54 can be mounted on the support plate 34. The push rod 36 can provide a stable support for the push plate 51, and the push plate 51 can easily push the push rod 36, and the push rod 36 can provide an opening space for the guide port 37, and the guide port 37 can provide a moving guide for the first semicircular sleeve 38 and the second semicircular sleeve 39.

[0150] After premixing, the staff can control the extension of the lifting rod 3 to take the premixing rod 15 out of the premixing tank 6, and remove the fixing parts of the fixed ear 7 to release the fixing effect on the ear 7, and then use the roller to pull the premixing tank 6 away from the machine base 2 under the support of the bottom plate 4, so that the premixing tank 6 drives the high-viscosity carbon nanotube conductive slurry formed after mixing inside it to move out. Before pulling the premixing tank 6 out, the staff needs to push the push rod 36 in the direction close to the transparent cover 17 through the push plate 51, so that the push rod 36 uses external force to drive the rotating sleeve rod 53 and the square sleeve ring 54 to move together in the direction close to the transparent cover 17. At the same time, the staff needs to push the rotating sleeve rod 53 to rotate counterclockwise, so that the rotating sleeve rod 53 drives the square sleeve ring 54 to rotate together, so that the square sleeve ring 5 4 can be moved to the corresponding position of the L hole 52, so that the square ring 54 can move to the inner side of the L hole 52 when the push rod 36 is pushed, and then the rotating sleeve rod 53 is released, so that the rotating sleeve rod 53 can rotate clockwise by the weight of the square ring 54, so that the square ring 54 is installed on the inner side of the L hole 52 on the support plate 34, so that the support plate 34 can position and support the square ring 54, and then the square ring 54 can provide a positioning effect for the push rod 36 through the rotating sleeve rod 53. When the push rod 36 is pushed, it will penetrate the transparent cover 17 under the action of external force to push the arc plug plate 50 to move in the direction close to the semicircular ring 45 and insert it into the inner side of the socket 49, and then push the semicircular ring 45 to move in the direction close to the steel grinding disc 44 on the inner side of the socket 49. At the same time, the semicircular ring 45 will be moved by the external force. Under the action, the multi-stage electric rod 43 is driven to move together on the inner side of the movable opening 41, so that the multi-stage electric rod 43 uses external force to pull the spring 42, so that the spring 42 is stretched and stored under the support of the fixing frame 9, so that the semi-circular ring 45 is fitted with the outer side of the steel grinding disc 44, and at the same time, the motor 11 is kept started, so that the transmission shaft 12 drives the steel grinding disc 44 and the premixing rod 15 to rotate together, so that the steel grinding disc 44 generates heat by the rotational power and the friction with the semi-circular ring 45, and then heats the semi-circular ring 45. At the same time, the cylinder arc plate absorbs the heat of the semi-circular ring 45 and dissipates it to the outside to generate heat radiation. After the semi-circular ring 45 is in contact with the steel grinding disc 44 for a certain period of time, the staff can push the rotating sleeve rod 53 to rotate counterclockwise, so that it drives the square sleeve ring 54 to rotate together on the inner side of the L hole 52, so that the square The ring 54 is separated from the support plate 34, and then the push rod 36 is pulled in the direction away from the transparent cover 17, so that the push rod 36 drives the square ring 54 to move out from the inner side of the L hole 52 under the action of external force, and at the same time, the push rod 36 drives the arc plug plate 50 to move out from the socket 49 and separate from the semicircular ring 45. At this time, the spring leaf 42 will use the rebound force to pull the multi-stage electric rod 43 along the movable opening 41 to move toward the arc support plate 33 under the support of the fixing frame 9. At the same time, the multi-stage electric rod 43 will drive the semicircular ring 45 to move together and separate from the steel grinding disc 44, and the semicircular ring 45 will drive the copper arc plate 46 and the brush plate 47 to move together, and then the multi-stage electric rod 43 is controlled to extend, so that the multi-stage electric rod 43 pushes the semicircular ring 45 and the copper arc plate 46 downward under the support of the spring leaf 42.The copper arc plate 46 is covered on the outside of the premixing rod 15, and the heat radiation emitted by the copper guard plate is used to heat the high-viscosity carbon nanotube conductive paste adhered to the premixing rod 15, so that the adhered high-viscosity carbon nanotube conductive paste is heated and thinned, and then the multi-stage electric rod 43 is controlled to extend, so that it drives the brush plate 47 and the cleaning brush 48 to move downward together through the semicircular ring 45, so that the cleaning brush 48 uses external force to contact the rotating premixing rod 15 during the movement, and the rotating power and the cleaning brush 48 and the elasticity of the cleaning brush 48 are used to clean the thinned conductive paste on the premixing rod 15, so as to facilitate the cleaning of the high-viscosity carbon nanotube conductive paste adhered to the premixing rod 15, reduce waste, and avoid affecting the production of the next batch of paste.

[0151] Another embodiment of the present invention provides a method for premixing a high-viscosity carbon nanotube conductive slurry, the method comprising:

[0152] Different high-viscosity carbon nanotube conductive slurry premixes are respectively injected into the first inclined cylinder 18 and the second inclined cylinder 19 provided in the splash-proof part for storage;

[0153] The tension part provided in the pull-moving part in the material making part is operated, and the herringbone rod 29 in the pull-moving part is pulled through the pull ear 40 and the pull rope 32 in the tension part, and the herringbone rod 29 is used to push the inclined plate 27 in the opening-assisting part, so that the inclined plate 27 pushes the rubber plate 24 in the sealing part to move, and then the discharge port 22 is opened to discharge the premix stored in the first inclined cylinder 18 or the second inclined cylinder 19 into the premixing tank 6;

[0154] The power is transmitted to the premixing rod 15 through the transmission shaft 12, so that the premixing rod 15 rotates and stirs in the premixing tank 6 to achieve premixing of the premixed materials. After the premixing is completed, the lifting rod 3 is controlled to extend to move the premixing rod 15 out of the premixing tank 6, and the high-viscosity carbon nanotube conductive slurry that has been premixed is taken out of the premixing tank 6;

[0155] Push the push rod 36 in the moving cleaning part as needed to make it push the semicircular ring 45 in the preheating part to fit with the rotating steel grinding disc 44, and at the same time rotate the rotating sleeve rod 53 in the locking cleaning part to make the square sleeve ring 54 fit with the L hole 52 to fit the positioning push rod 36 on the supporting plate 34, so as to frictionally heat the steel grinding disc 44 and the copper arc plate 46;

[0156] After heating the steel grinding disc 44 and the copper arc plate 46, the square ring 54 is moved out of the L hole 52, and then the multi-stage electric rod 43 in the cleaning part is controlled to extend, and the preheating part is controlled to move downward to the outside of the premixing rod 15 to heat the premixing rod 15 and the high-viscosity carbon nanotube conductive slurry adhered to the premixing rod 15, so that it becomes porridge due to the heat, so that the cleaning brush 48 in the cleaning part continues to move downward to clean the high-viscosity carbon nanotube conductive slurry adhered to the premixing rod 15.

[0157] Working principle: Before the operation begins, the staff first uses the roller to move the premixing tank 6 to the bottom plate 4. The premixing tank 6 is precisely positioned by the fixed connection between the lug 7 and the positioning frame 5, and the lifting rod 3 is controlled to extend, driving the top cover 8 and the premixing rod 15 to move upward together to prevent the premixing rod 15 from interfering with the movement of the premixing tank 6. When the premixing tank 6 reaches the positioning position, the premix is ​​injected into the premixing tank 6 in batches. After the lifting rod 3 is retracted, the top cover 8 drives the premixing rod 15 to be inserted into the premixing tank 6, and the motor 11 is started through the transmission shaft 12. The motor 11 drives the transmission shaft 12 and the premixing rod 15 to rotate through the belt 14 to achieve mixing of the premix in the premix tank 6. The splash-proof part is composed of a transparent cover 17, a bottom cover 16, a first inclined cylinder 18 and a second inclined cylinder 19. During the mixing process, these components work together to prevent the premix from splashing out of the premix tank 6. The transparent cover 17 not only provides protection, but also makes it convenient for the staff to observe the premixing process in real time. In the material preparation stage, the premix enters the first inclined cylinder 18 or the second inclined cylinder 19 through the connecting pipe 20, and then enters the premix tank 6 through the discharge port 22. The process is controlled by the operation of the tension parts to ensure the time-sharing and batch injection of the premixed material to avoid uneven mixing caused by excessive addition. The heat cleaning part drives the semicircular ring 45, the copper arc plate 46 and the brush plate 47 to move through the multi-stage electric rod 43 to achieve the heating and cleaning of the premixing rod 15. The copper arc plate 46 has high thermal conductivity and heats the conductive slurry adhered to the rod by contacting with the premixing rod 15, making it thinner due to heat. Then, the brush plate 47 removes the adhered slurry through cleaning to ensure the purity and efficiency of the next batch of work. After the premixing operation is completed, the staff controls the extension of the lifting rod 3 to take the premixing rod 15 out of the premixing tank 6, and moves the mixed slurry out of the premixing tank 6 through the push-pull device, and performs subsequent processing. Before the premixing rod 15 is moved out, the cleaning brush 48 is brought into contact with the rotating premixing rod 15 by rotating the push rod 36, pulling the pull rope 32, etc., and the elasticity and heat resistance of the brush plate 47 and the cleaning brush 48 are utilized to thoroughly clean the remaining slurry on the premixing rod 15 to prevent the residue from affecting the subsequent operations.

[0158] The above is a preferred embodiment of the present invention. It should be pointed out that for ordinary technicians in this technical field, several improvements and modifications can be made without departing from the principles of the present invention. These improvements and modifications should also be regarded as the scope of protection of the present invention.

Claims

1. A high viscosity carbon nanotube conductive slurry premixing device, characterized in that: The invention comprises a premixing tank (6) and a premixing rod (15) which is rotatably and liftably arranged in the premixing tank (6), a lifting rod (3) being arranged on one side of the premixing tank (6), a top cover (8) being fixed to the telescopic end of the lifting rod (3) and being located above the premixing tank (6) and the premixing rod (15), and further comprising: A splash-proof portion, fixed to a side of the top cover (8) close to the premixing tank (6) and located outside the premixing rod (15) to prevent the premix from splashing outside the premixing tank (6); A material preparation section is arranged through the splash-proof section and is located outside the splash-proof section so as to prepare a premixed material into the premixing tank (6); A heat cleaning section is arranged inside the splash-proof section and is connected to the material preparation section and the premixing rod (15) to generate heat to heat the premixing rod (15) and the conductive slurry and to clean them; The material preparation part comprises a sealing member and a pulling member, the sealing member is arranged to penetrate the splash-proof part, the pulling member is connected to the sealing member, and the pulling member penetrates the splash-proof part and is located outside the splash-proof part, so as to pull the sealing member to discharge the premixed material into the premixing tank (6); The heat cleaning part comprises a preheating part and a cleaning moving part, the preheating part is connected to the premixing rod (15) and is located outside the premixing rod (15), and the cleaning moving part is connected to the preheating part and the pulling and moving part to push the preheating part to move and wipe and clean the premixing rod (15); The sealing member comprises: The rubber sheets (24) are provided in four groups, with each group consisting of two rubber sheets (24); An opening-assisting part, arranged above the rubber plate (24); The pulling member includes a pulling part, and the pulling part penetrates the sealing member and is symmetrically arranged on the outside of the splash-proof part; The cleaning moving part comprises a cleaning locking part, and the cleaning locking part is arranged on the tension part.

2. The high viscosity carbon nanotube conductive slurry premixing device according to claim 1, characterized in that: The splash guard comprises: A transparent cover (17) is fixed to a side of the top cover (8) close to the premixing tank (6); A bottom cover (16) is fixed to an end of the transparent cover (17) away from the top cover (8) and covers the premixing tank (6); The first inclined cylinders (18) are provided with two, the two first inclined cylinders (18) penetrate the transparent cover (17) and are symmetrically fixed, and are fixedly connected to the top cover (8) and the bottom cover (16); The second inclined cylinders (19) have two parts, and the two second inclined cylinders (19) penetrate the transparent cover (17) and are symmetrically fixed thereto, and are located close to the transparent cover (17), close to the lifting rod (3), and away from the first inclined cylinder (18).

3. The high viscosity carbon nanotube conductive slurry premixing device according to claim 2, characterized in that: The sealing member comprises: A connecting pipe (20) is provided through the first inclined tube (18) and the second inclined tube (19) at an end away from the premixing tank (6) and is located outside the top cover (8); A discharge port (22) is formed through the first inclined cylinder (18) and the second inclined cylinder (19) and is disposed on a side close to the premixing rod (15); The L blocks (23) have four groups, with two L blocks (23) forming one group, and each group of L blocks (23) is fixed on the first inclined cylinder (18) and the second inclined cylinder (19), and is located on the inner side of the first inclined cylinder (18) and the second inclined cylinder (19); A group of rubber plates (24) are placed inside the first inclined cylinder (18) and the second inclined cylinder (19), respectively, corresponding to the position of the discharge port (22) and fitting with the first inclined cylinder (18) and the second inclined cylinder (19).

4. The high-viscosity carbon nanotube conductive slurry premixing device according to claim 3, characterized in that: The opening-assisting parts include: A guide groove (25) is provided on a side of the rubber plate (24) away from the premixing tank (6) and is located outside the L block (23); A first spring (26), one end of which is fixedly connected to the L block (23), the other end of which is fixedly connected to the rubber plate (24), and is located inside the guide groove (25); The inclined plates (27) are provided in four groups, with two inclined plates (27) forming one group, and each group of inclined plates (27) is symmetrically fixed above each group of rubber plates (24); A through port (28) is provided through the inclined plate (27).

5. The high-viscosity carbon nanotube conductive slurry premixing device according to claim 4, characterized in that: The pulling member comprises: A herringbone rod (29) is placed on the inner side of each set of inclined plates (27) through the through opening (28) and is located above the guide groove (25); A second spring (30), one end of which is fixed to an end of the herringbone rod (29) away from the rubber plate (24); A guide cover (31) is fixed to the other end of the second spring (30), is located outside the second spring (30), and is fixedly connected to the first inclined cylinder (18) and the second inclined cylinder (19); The tension component passes through the connecting tube (20) and is symmetrically arranged on the outside of the transparent cover (17), and is located between the first inclined tube (18) and the second inclined tube (19).

6. The high-viscosity carbon nanotube conductive slurry premixing device according to claim 5, characterized in that: The tension parts include: A pull rope (32) movably penetrates the guide cover (31) and the second spring (30), and one end of the pull rope is fixedly connected to the herringbone rod (29); There are two arc support plates (33), the two arc support plates (33) are symmetrically arranged on the outside of the transparent cover (17), and are fixedly connected to the first inclined cylinder (18) and the second inclined cylinder (19); A support plate (34) is fixed to the other end of the pull rope (32) and is placed through the arc support plate (33); There are four pull ears (40), with two of the pull ears (40) forming a group, and one end of each group of pull ears (40) is fixed to a side of the support plate (34) away from the transparent cover (17); A first semicircular sleeve (38) is fixed to the other end of the pull ear (40) close to the second inclined cylinder (19); The second semicircular sleeve (39) is fixed to the other end of the pull ear (40) close to the first inclined cylinder (18).

7. The high-viscosity carbon nanotube conductive slurry premixing device according to claim 6, characterized in that: The preheating element comprises: A transmission shaft (12) is rotatably installed through the top cover (8) and is fixedly connected to an end of the premixing rod (15) away from the premixing tank (6); A steel grinding disc (44) is fixedly mounted on the outer side of the transmission shaft (12) and is located above the premixing rod (15); A semicircular ring (45) is symmetrically arranged on the outside of the steel grinding disc (44) and is located on the inside of the transparent cover (17) with a gap between the semicircular ring and the steel grinding disc (44); The copper arc plate (46) is fixed to one end of the semicircular ring (45) close to the premixing tank (6).

8. The high-viscosity carbon nanotube conductive slurry premixing device according to claim 7, characterized in that: The removal parts include: A reed (42), one end of which is fixed in the top cover (8); A multi-stage electric rod (43), the telescopic end of which is fixedly connected to the semicircular ring (45), the fixed end of which is connected to the other end of the spring leaf (42), and can be translated to penetrate a side of the top cover (8) close to the premixing tank (6); The socket (49) is provided on a side of the semicircular ring (45) away from the steel grinding disc (44); An arc plug plate (50) is arranged outside the semicircular ring (45), movably penetrates the transparent cover (17), and is located at a position corresponding to the socket (49); A push rod (36), one end of which is fixed to the outside of the arc insert plate (50), and the other end of which moves through the support plate (34) and is connected to the first semicircular sleeve (38) and the second semicircular sleeve (39) for guiding; The locking and clearing parts are arranged on the semicircular ring (45), the supporting plate (34) and the push rod (36).

9. The high-viscosity carbon nanotube conductive slurry premixing device according to claim 8, characterized in that: The lock clearing parts include: A brush plate (47) is fixed to a side of the semicircular ring (45) away from the copper arc plate (46); A cleaning brush (48) is fixed to a side of the brush plate (47) close to the transmission shaft (12); An L hole (52) is formed on a side of the support plate (34) away from the transparent cover (17) and is communicated with the inner side of the support plate (34); A rotating sleeve rod (53) is rotatably sleeved on the outer side of the push rod (36) and is located in a direction close to the transparent cover (17) of the first semicircular sleeve (38) and the second semicircular sleeve (39); The square collar (54) is fixed on the outside of the rotating sleeve rod (53) and corresponds to the position of the L hole (52).

10. A method for premixing high viscosity carbon nanotube conductive slurry, characterized in that: Applied to the high-viscosity carbon nanotube conductive slurry premixing device as claimed in claim 9, the method comprises: Injecting different high-viscosity carbon nanotube conductive slurry premixes into a first inclined cylinder (18) and a second inclined cylinder (19) provided in the splash-proof part for storage; The pulling force component provided in the pulling and moving component in the material making part is operated to pull the herringbone rod (29) in the pulling and moving component through the pulling ear (40) and the pulling rope (32) in the pulling force component, and the herringbone rod (29) is used to push the inclined plate (27) in the auxiliary opening component, so that the inclined plate (27) pushes the rubber plate (24) in the sealing and opening component to move, thereby opening the discharge port (22) to discharge the premixed material stored in the first inclined cylinder (18) or the second inclined cylinder (19) into the premixing tank (6); Power is transmitted to the premixing rod (15) through the transmission shaft (12), so that the premixing rod (15) rotates and stirs in the premixing tank (6) to achieve premixing of the premixed materials; after the premixing is completed, the lifting rod (3) is controlled to extend to move the premixing rod (15) out of the premixing tank (6), and the premixing tank (6) is removed to take out the premixed high-viscosity carbon nanotube conductive slurry; According to the need, the push rod (36) in the moving cleaning part is pushed so that the semicircular ring (45) in the preheating part is pressed against the rotating steel grinding disc (44), and at the same time, the rotating sleeve rod (53) in the locking cleaning part is rotated so that the square sleeve ring (54) and the L hole (52) are matched and mounted on the supporting plate (34) to position the push rod (36), so as to frictionally heat the steel grinding disc (44) and the copper arc plate (46); After heating the steel grinding disc (44) and the copper arc plate (46), the square sleeve ring (54) is removed from the L hole (52), and then the multi-stage electric rod (43) in the cleaning part is controlled to extend, and the preheating part is controlled to move downward to the outside of the premixing rod (15) to heat the premixing rod (15) and the high-viscosity carbon nanotube conductive slurry adhered to the premixing rod (15), so that the premixing rod (15) and the high-viscosity carbon nanotube conductive slurry adhered to the premixing rod (15) are heated and thinned, so that the cleaning brush (48) in the cleaning part continues to move downward to clean the high-viscosity carbon nanotube conductive slurry adhered to the premixing rod (15).

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