Efficient dispersion device for conductive microsphere production

Abstract

The utility model relates to an efficient dispersion device for conductive microsphere production, and relates to the field of dispersion devices, the efficient dispersion device comprises a barrel body, a barrel cover arranged on the barrel body and a stirring rod arranged on the barrel cover, the barrel body is used for containing a plating solution and microspheres, the stirring rod is used for stirring the plating solution, a plurality of vibration pieces are arranged on the outer wall of the barrel body, and the height of the vibration pieces is lower than the liquid level of the plating solution. During preparation, the stirring rod stirs a plating solution to enable microspheres to be immersed in the plating solution, centrifugal force generated when the stirring rod stirs enables part of the microspheres in the plating solution to move towards the inner wall of the barrel body, the vibrating piece on the outer wall of the barrel body vibrates to enable the microspheres to fall off from the inner wall, and the microspheres are dispersed again under the action of the stirring rod, so that the dispersion effect is improved, and chemical plating is more uniform.

Description

Technical Field

[0001] The present application relates to the field of dispersion devices, and in particular to a highly efficient dispersion device for producing conductive microspheres. Background Art

[0002] Conductive microspheres are spherical particles with conductive properties. The conventional preparation method of conductive microspheres is to plate a conductive metal layer on the surface of the microspheres by chemical plating. Since the microspheres are micron-sized powder materials with small specific gravity and easy agglomeration, a dispersion device is required to disperse the microspheres in the plating solution.

[0003] In the related art, stirring blades are usually used for stirring and dispersing. The centrifugal force generated by high-speed stirring allows the microspheres to be immersed in the plating solution. However, the microspheres entering the plating solution are easily attached to the container wall under the action of centrifugal force, and the dispersion effect in the plating solution needs to be improved. Utility Model Content

[0004] In order to make the coating uniform, the present application provides an efficient dispersion device for producing conductive microspheres.

[0005] A highly efficient dispersion device for producing conductive microspheres adopts the following technical solutions:

[0006] A highly efficient dispersion device for producing conductive microspheres comprises a barrel body, a barrel cover arranged on the barrel body and a stirring rod arranged on the barrel cover, wherein the barrel body is used to contain plating solution and microspheres, the stirring rod is used to stir the plating solution, and a plurality of vibrating members are arranged on the outer wall of the barrel body, wherein the height of the vibrating members is lower than the liquid level of the plating solution.

[0007] By adopting the above technical scheme, during preparation, the stirring rod stirs the plating solution so that the microspheres are immersed in the plating solution. The centrifugal force when the stirring rod stirs causes part of the microspheres in the plating solution to move to the inner wall of the barrel body. The vibrating part on the outer wall of the barrel body vibrates to cause the microspheres to fall off the inner wall and be redispersed under the action of the stirring rod, which is beneficial to improve the dispersion effect and make the chemical plating more uniform.

[0008] Preferably, the vibrator includes ultrasonic vibrator 1 and ultrasonic vibrator 2, and the ultrasonic vibrator 1 and the ultrasonic vibrator 2 are both arranged on the barrel body, and the distribution direction of the ultrasonic vibrator 1 and the barrel body is perpendicular to the rotation axis of the stirring rod, and the distribution direction of the ultrasonic vibrator 2 and the barrel body is parallel to the rotation axis of the stirring rod.

[0009] By adopting the above technical scheme, during the preparation process, the stirring rod stirs the plating solution, and the ultrasonic vibrator 1 disperses the plating solution and the microspheres from bottom to top, which is perpendicular to the centrifugal force generated by the stirring of the stirring rod. The synergistic effect of the stirring rod and the ultrasonic vibrator 1 is conducive to the dispersion of the microspheres in the plating solution, which is conducive to reducing the microspheres from sinking to the bottom of the barrel; the vibration of the ultrasonic vibrator 2 is conducive to reducing the microspheres from adhering to the inner wall of the barrel, which is conducive to improving the dispersion effect.

[0010] Preferably, a cone is provided on the inner wall of the bottom of the barrel body, the cone is arranged around the rotation axis of the stirring rod, and the cone is arranged to be gradually contracted in the direction close to the stirring rod.

[0011] By adopting the above technical solution and setting a cone at the bottom of the barrel, the plating solution is not easy to form a vortex at the stirring rod during use, which is conducive to accelerating the dispersion of microspheres at the bottom of the stirring rod to the surroundings, reducing the agglomeration of microspheres, and improving the dispersion efficiency.

[0012] Preferably, an ultrasonic vibrator three is provided on the inner wall of the cone.

[0013] By adopting the above technical solution and arranging the ultrasonic vibrator three on the cone, it is beneficial to further accelerate the dispersion of the microspheres under the stirring rod to the surroundings, which is beneficial to improve the dispersion efficiency.

[0014] Preferably, the barrel cover is provided with an opening.

[0015] By adopting the above technical solution, an opening is provided on the barrel cover, so that the gas generated by the chemical reaction during the chemical plating process can be discharged from the opening.

[0016] Preferably, the barrel body includes a dispersion barrel and an insulation layer arranged on the dispersion barrel, the vibrating member and the barrel cover are arranged on the dispersion barrel, an insulation cavity is arranged between the dispersion barrel and the insulation layer, the insulation cavity is arranged around the outer circumference of the dispersion barrel, the insulation cavity is used to hold insulation oil, a heater and a temperature control system are provided on the insulation layer, the heater is used to heat the insulation oil, the temperature control system is used to detect the temperature of the insulation oil and compare the detected temperature with a preset temperature value, when the temperature of the insulation oil is lower than the preset temperature, the temperature control system controls the heater to heat; when the temperature of the insulation oil is equal to the preset temperature, the temperature control system controls the insulation oil to stop heating.

[0017] By adopting the above technical solution, the temperature of the plating solution in the dispersion barrel is kept constant through the insulation oil, the heater and the temperature control system. It is also helpful to prevent the plating speed of the microspheres from decreasing due to the decrease in the plating solution temperature, and it is also helpful to maintain the viscosity of the plating solution. It is beneficial to the dispersion and reaction of the microspheres.

[0018] Preferably, there are a plurality of ultrasonic vibrators 2, and the ultrasonic vibrators 2 are respectively located on two opposite sides of the barrel body, and the heights of the plurality of ultrasonic vibrators 2 are different.

[0019] By adopting the above technical solution, the microspheres at the same height on both sides of the stirring rod are prevented from moving toward each other, which is beneficial to increasing the action range of the vibrating element and improving the dispersion effect.

[0020] Preferably, it also includes a mounting seat, which is used to support the barrel body, and the mounting seat is provided with a plurality of universal wheels, and the mounting seat is supported by the universal wheels.

[0021] By adopting the above technical solution, the mobile dispersion device becomes easier and more convenient.

[0022] Preferably, the mounting seat is rotatably connected to the barrel body, and the rotation axis between the barrel body and the mounting seat is horizontally arranged.

[0023] By adopting the above technical solution, the barrel body is rotatably connected to the mounting base, which is conducive to keeping the barrel body upright during transportation.

[0024] By adopting the above technical method, the barrel body is rotatably connected to the mounting base, which is conducive to keeping the barrel body stable during transportation.

[0025] In summary, the present application includes at least one of the following technical effects:

[0026] 1. The vibration of the vibrating piece on the outer wall of the barrel causes the microspheres to fall off the inner wall and be redispersed under the action of the stirring rod, which is beneficial to improve the dispersion effect;

[0027] 2. The synergistic effect of the stirring rod and ultrasonic vibrator 1 is conducive to the dispersion of the microspheres in the plating solution, which is conducive to reducing the microspheres from sinking to the bottom of the barrel; the vibration of ultrasonic vibrator 2 is conducive to reducing the microspheres from adhering to the inner wall of the barrel, which is conducive to improving the dispersion effect;

[0028] 3. By setting the ultrasonic vibrator three on the cone, it is helpful to further accelerate the dispersion of the microspheres under the stirring rod to the surroundings, which is helpful to improve the dispersion efficiency. BRIEF DESCRIPTION OF THE DRAWINGS

[0029] Figure 1 It is a schematic diagram of the overall structure of this embodiment.

[0030] Figure 2 This is a partial cross-sectional view of the barrel body of this embodiment, mainly showing the internal structure of the barrel body.

[0031] Figure 3 for Figure 2 The enlarged view of part A in the middle mainly shows the structure of the barrel.

[0032] Explanation of the reference numerals: 1. mounting base; 2. barrel body; 21. insulation layer; 211. heater; 212. temperature control system; 213. oil filling port; 214. oil drain port; 22. dispersion barrel; 221. dispersion space; 222. cone; 223. drain port one; 224. drain port two; 225. arc surface; 23. insulation chamber; 3. barrel cover; 31. open mouth; 32. stirring rod; 33. driving motor; 4. outward wheel; 5. vibration part; 51. ultrasonic vibrator one; 52. ultrasonic vibrator two; 53. ultrasonic vibrator three; 6. universal wheel. DETAILED DESCRIPTION

[0033] The present application is further described in detail below in conjunction with the accompanying drawings.

[0034] The present application discloses a highly efficient dispersion device for producing conductive microspheres. Figure 1 , a highly efficient dispersion device for producing conductive microspheres, comprising a mounting seat 1, a barrel body 2 and a barrel cover 3, wherein the barrel body 2 is cylindrical, and a dispersion space 221 is provided on the barrel body 2, and the dispersion space 221 is used to contain plating solution and microspheres. The barrel cover 3 is located above the barrel body 2, and the barrel cover 3 is used to cover the dispersion space 221, and an opening 31 is provided on the barrel cover 3, and the dispersion space 221 is connected to the outside through the opening 31. The barrel body 2 is rotatably connected to the mounting seat 1, and the barrel body 2 floats on the ground through the mounting seat 1. The barrel body 2 and the mounting seat 1 are rotatably connected to the mounting seat 1 through a transmission shaft, and the barrel body 2 can rotate 1-180 degrees around the transmission shaft. The rotation axis of the barrel body 2 on the mounting seat 1 is horizontal, and a plurality of universal wheels 6 are fixedly connected to the mounting seat 1, and the plurality of universal wheels 6 are all located below the mounting seat 1, and the outward wheels 4 are used to support the mounting seat 1, so that the dispersion device can be easily transported. The universal wheels 6 in this embodiment are provided with brakes, and the mounting seat 1 is made of 304 or 316 stainless steel plates.

[0035] Reference Figure 1 and Figure 2 The barrel cover 3 is rotatably connected with a stirring rod 32, the rotation axis of the stirring rod 32 is vertically arranged, the stirring rod 32 is located on the side of the barrel cover 3 close to the barrel body 2, the stirring rod 32 extends into the dispersion space 221, and the stirring rod 32 is used to stir the plating solution and the microspheres. A driving motor 33 is fixed above the barrel cover 3, the output shaft of the driving motor 33 is coaxially fixedly connected with the stirring rod 32, and the driving motor 33 drives the stirring rod 32 to rotate.

[0036] Reference Figure 2A plurality of vibrators 5 are fixedly installed on the barrel body 2, and the plurality of vibrators 5 include a plurality of ultrasonic vibrators 1 51 and a plurality of ultrasonic vibrators 2 52. The ultrasonic vibrators 1 51 and the ultrasonic vibrators 2 52 are both located outside the dispersion space 221, and the plurality of ultrasonic vibrators 1 51 are evenly distributed on opposite sides of the stirring rod 32. The plurality of ultrasonic vibrators 1 51 are fixed on the outer wall of the barrel body 2, and the distribution direction of the plurality of ultrasonic vibrators 1 51 and the barrel body 2 is perpendicular to the rotation axis of the stirring rod 32. The heights of the plurality of ultrasonic vibrators 1 51 on the barrel body 2 are lower than the liquid level of the plating solution in the dispersion space 221, and the heights of the plurality of ultrasonic vibrators 1 51 on the barrel body 2 are all different. When the plurality of ultrasonic vibrators 1 51 work, the plating solution and the microspheres in the dispersion space 221 move horizontally away from the inner wall of the dispersion space 221, which is beneficial to reduce the adhesion of the microspheres to the inner wall of the dispersion space 221.

[0037] Reference Figure 1 and Figure 2 The mounting base 1 lifts the barrel body 2, and a plurality of ultrasonic vibrators 52 are located below the barrel body 2. A plurality of ultrasonic vibrators 52 are fixed to the lower end surface of the barrel body 2, and a plurality of ultrasonic vibrators 52 are distributed on opposite sides of the stirring rod 32. The ultrasonic vibrators 52 located on both sides of the stirring rod 32 are symmetrically arranged with respect to the stirring rod 32. The ultrasonic vibrators 52 and the barrel body 2 are distributed in the vertical direction. The operation of the ultrasonic vibrators 52 causes the plating solution and microspheres in the dispersion space 221 to move from bottom to top, which is beneficial to reduce the adhesion of high molecular polymers to the inner wall at the bottom of the dispersion space 221. The density of the ultrasonic vibrator 1 51 is 1 / 3 to 2 / 3 of the density of the ultrasonic vibrator 2 52. In this embodiment, the density of the ultrasonic vibrator 1 51 is 1 / 3 of the density of the ultrasonic vibrator 2 52.

[0038] Reference Figure 2 and Figure 3 The barrel body 2 includes a dispersion barrel 22 and a heat preservation layer 21. The dispersion barrel 22 is rotatably connected to the mounting seat. The barrel cover 3 and the dispersion space 221 are both arranged on the dispersion barrel 22. The heat preservation layer 21 is arranged around the outer periphery of the dispersion barrel 22 along the axis of the stirring rod 32. The heat preservation layer 21 and the dispersion barrel 22 are spliced ​​to form a heat preservation chamber 23. The heat preservation chamber 23 is used to store heat preservation oil. The heat preservation chamber 23 is arranged around the outer periphery of the dispersion barrel 22. The heat preservation chamber 23 is spaced apart from the dispersion space 221. The ultrasonic vibrator 1 51 is fixedly installed on the outer side wall of the heat preservation layer 21, and the ultrasonic vibrator 2 52 is fixedly installed on the dispersion barrel 22. In this embodiment, the dispersion barrel 22 is made of 304 or 316 stainless steel plate.

[0039] Reference Figure 2 and Figure 3A heater 211 and a temperature control system 212 are installed on the insulation layer 21. The heater 211 is used to heat the insulation oil. The temperature control system 212 detects the temperature of the insulation oil and compares the temperature of the insulation oil with a preset temperature. When the detected temperature is lower than the preset temperature, the temperature control system 212 controls the heater 211 to heat the insulation oil until the temperature of the insulation oil reaches the preset temperature, and the temperature control system 212 controls the heater 211 to stop working.

[0040] During use, a large amount of gas will be generated during the chemical plating process of the microspheres, and the gas needs to be discharged from the opening 31. During the stirring process of the stirring rod 32, the temperature of the plating solution in the dispersion space 221 will drop rapidly with the stirring. The temperature drop will reduce the plating speed of the microspheres and increase the viscosity of the plating solution. It increases the difficulty of dispersing the microspheres in the plating solution holes and reduces the vibration effect of the vibrating part 5. The plating solution temperature is maintained stable by the insulation layer 21, insulation oil, heater 211 and temperature control system 212, which is beneficial to increasing the plating speed of the microspheres and facilitating the dispersion of the microspheres.

[0041] Reference Figure 2 and Figure 3 An oil filling port 213 and an oil drain port 214 are provided on the insulation layer 21. The oil filling port 213 and the oil drain port 214 are distributed in the horizontal direction. The oil filling port 213 and the oil drain port 214 are respectively located on the opposite sides of the insulation layer 21. The oil filling port 213 and the oil drain port 214 are both connected to the insulation cavity 23. The oil filling port 213 is located above the oil drain port 214. The insulation oil enters the insulation cavity 23 from the oil filling port 213. When the insulation oil needs to be replaced, the insulation oil in the insulation cavity 23 is discharged through the drain port, and then the insulation oil is injected into the insulation cavity 23.

[0042] Reference Figure 2 and Figure 3 A cone 222 is fixed on the dispersion barrel 22. The cone 222 is located in the dispersion space 221. The lower end surface of the cone 222 is fixed to the lower end of the dispersion barrel 22. The cone 222 is arranged around the outer periphery of the rotation axis of the stirring rod 32. The cone 222 is located below the stirring rod 32. The cone 222 is gradually reduced in the direction close to the stirring plate. The diameter of the cone 222 is 1 / 5 to 2 / 5 of the bottom diameter of the dispersion barrel 22, and the height of the cone 222 is 1 / 10 to 2 / 10 of the height of the dispersion barrel 22. In this embodiment, the outer wall of the cone barrel and the bottom of the dispersion barrel 22 are connected by arc stainless steel.

[0043] When in use, a vortex will be generated in the plating solution during the stirring process of the stirring rod 32. The vortex is located below the stirring rod 32 and is shaped like an inverted cone around the axis of the stirring rod 32. By setting the cone 222, the polymer microspheres below the stirring rod 32 are facilitated to disperse in a direction away from the axis of the stirring rod 32, which helps to reduce the agglomeration of microspheres in the plating solution.

[0044] Reference Figure 2 and Figure 3 A plurality of ultrasonic vibrators 3 53 are fixed to the inner wall of the cone 222, and the ultrasonic vibrators 3 53 are located on the side of the cone 222 away from the dispersion space 221. The ultrasonic vibrators 3 53 disperse the microspheres located below the stirring rod 32 upward in a direction away from the axis of the stirring rod 32, which is beneficial to reduce the aggregation of polymerized microspheres or adhesion to the stirring rod 32. The density of the ultrasonic vibrators 3 53 is 1-1.5 times that of the ultrasonic vibrators 2 52.

[0045] Reference Figure 2 and Figure 3 The dispersion barrel 22 is provided with a drain outlet 223 and a drain outlet 224, which are located at the bottom of the dispersion barrel 22, and are connected to the dispersion space 221. The drain outlet 223 and the drain outlet 224 are respectively located on both sides of the cone 222, and one end of the drain outlet 223 and the drain outlet 224 close to the dispersion space 221 is lower than the bottom inner wall of the dispersion space 221, and the plating solution and microspheres in the dispersion space 221 are discharged through the drain outlet 223 and the drain outlet 224.

[0046] In the actual process, two drainage pipes are fixed on the dispersion barrel 22, and the two drainage pipes are respectively connected to the drainage port 1 223 and the drainage port 2 224. A filter plate is installed on the drainage pipe, and the filter plate is used to collect the conductive microspheres. The filter plate can be replaced by a filter membrane.

[0047] Reference Figure 2 The inner wall of the dispersion space 221 is processed to form an arc surface 225, which is arranged around the outer periphery of the inner wall of the bottom of the dispersion space 221. The arc surface 225 connects the inner wall of the dispersion space 221 and the inner wall of the bottom, so that there is no 90-degree dead angle between the contact surface between the inner wall of the dispersion space 221 and the plating solution, so that the microspheres are sandwiched in the dead angle during stirring, which is conducive to the uniform dispersion of the microspheres in the plating solution. In this embodiment, the outer wall and the bottom wall of the dispersion barrel 22 are connected by an arc stainless steel plate. The materials used in the dispersion device of this embodiment are all acid and alkali resistant materials.

[0048] When in use, the insulation chamber 23 is filled with insulation oil through the oil filling port 213, the insulation oil is heated to a set temperature through the heater 211, and the preheated plating solution is poured into the dispersion space 221 through the open port 31. After the plating solution is evenly stirred through the stirring rod 32 and the vibrating member 5, the polymer microspheres are poured in to start the plating reaction. During this process, the plating solution is continuously added from the open port 31 to the dispersion space 221 until the plating solution completes the reaction, the vibrating member 5 and the stirring rod 32 are closed, the drain port 1 223 and the drain port 224 are opened, and the plating solution flows out from the drainage pipe. After the plating solution flows out, it is repeatedly cleaned 2 to 3 times with DI water, the drainage pipe is removed to collect the conductive microspheres, and finally the dispersion barrel 22 is cleaned and the dispersion barrel 22 is dried by the residual heat of the insulation oil.

[0049] The implementation principle of the efficient dispersion device for producing conductive microspheres in the embodiment of the present application is as follows: the plating solution and the microspheres are poured into the dispersion space 221 from the opening 31, the liquid level of the plating solution is higher than the height of the plurality of ultrasonic vibrators 51, the stirring rod 32 rotates to stir the plating solution and the microspheres, so that the microspheres loaded on the surface of the plating solution enter the plating solution under the action of centrifugal force, while the stirring rod 32 stirs, the ultrasonic vibrator 1 51, the ultrasonic vibrator 2 52 and the ultrasonic vibrator 3 53 vibrate, the ultrasonic vibrator 2 52 makes the microspheres move from top to bottom, perpendicular to the direction of the centrifugal force generated by the stirring rod 32, reducing the adhesion of the microspheres to the bottom of the dispersion space 221, while enabling the microspheres to be more fully dispersed in the plating solution, and then the ultrasonic vibrator 1 51 assists the ultrasonic vibrator 2 52 to prevent the microspheres from adhering to the inner wall of the dispersion space 221; the ultrasonic vibrator 3 53 vibrates to accelerate the microspheres close to the axis of the stirring rod 32 to move in a direction away from the axis of the stirring rod 32, which is beneficial to reducing the agglomeration of the microspheres near the stirring rod 32. It is beneficial to improve the dispersion effect and dispersion efficiency.

[0050] The above are all preferred embodiments of the present application, and the protection scope of the present application is not limited thereto. Therefore, any equivalent changes made according to the structure, shape, and principle of the present application should be included in the protection scope of the present application.

Claims

1. A highly efficient dispersing device for producing conductive microspheres, characterized in that: The invention comprises a barrel body (2), a barrel cover (3) arranged on the barrel body (2), and a stirring rod (32) arranged on the barrel cover (3); the barrel body (2) is used to contain plating solution and microspheres; the stirring rod (32) is used to stir the plating solution; a plurality of vibrating members (5) are arranged on the outer wall of the barrel body (2); and the height of the vibrating members (5) is lower than the liquid level of the plating solution.

2. A conductive microsphere production and efficient dispersion device according to claim 1, characterized in that: The vibration member (5) comprises an ultrasonic vibrator 1 (51) and an ultrasonic vibrator 2 (52), wherein the ultrasonic vibrator 1 (51) and the ultrasonic vibrator 2 (52) are both arranged on the barrel body (2), and the distribution direction of the ultrasonic vibrator 1 (51) and the barrel body (2) is perpendicular to the rotation axis of the stirring rod (32), and the distribution direction of the ultrasonic vibrator 2 (52) and the barrel body (2) is parallel to the rotation axis of the stirring rod (32).

3. The conductive microsphere production efficient dispersion device according to claim 1, characterized in that: A cone (222) is provided on the inner wall of the bottom of the barrel body (2); the cone (222) is arranged around the rotation axis of the stirring rod (32); the cone (222) is arranged to be gradually contracted in a direction close to the stirring rod (32).

4. A highly efficient dispersion device for producing conductive microspheres according to claim 3, characterized in that: Ultrasonic vibrator three (53) is provided on the inner wall of the cone (222).

5. The conductive microsphere production efficient dispersion device according to claim 1, characterized in that: The barrel cover (3) is provided with an opening (31).

6. A highly efficient dispersion device for producing conductive microspheres according to claim 5, characterized in that: The barrel body (2) comprises a dispersion barrel (22) and a heat-insulating layer (21) arranged on the dispersion barrel (22); the vibrating member (5) and the barrel cover (3) are arranged on the dispersion barrel (22); a heat-insulating chamber (23) is arranged between the dispersion barrel (22) and the heat-insulating layer (21); the heat-insulating chamber (23) is arranged around the outer circumference of the dispersion barrel (22); the heat-insulating chamber (23) is used to contain heat-insulating oil; a heater (211) and a temperature control system (212) are arranged on the heat-insulating layer (21); the heater (211) is used to heat the heat-insulating oil; the temperature control system (212) is used to detect the temperature of the heat-insulating oil and compare the detected temperature with a preset temperature value; when the temperature of the heat-insulating oil is lower than the preset temperature, the temperature control system (212) controls the heater (211) to heat; when the temperature of the heat-insulating oil is equal to the preset temperature, the temperature control system (212) controls the heater (211) to stop heating.

7. The conductive microsphere production efficient dispersion device according to claim 2, characterized in that: There are a plurality of ultrasonic vibrators 2 (52), each of which is located on two opposite sides of the barrel body (2), and the plurality of ultrasonic vibrators 2 (52) have different heights.

8. The conductive microsphere production and efficient dispersion device according to claim 1, characterized in that: It also comprises a mounting seat (1), the mounting seat (1) being used to support the barrel body (2), the mounting seat (1) being provided with a plurality of universal wheels (6), and the mounting seat (1) being supported by the universal wheels (6).

9. A highly efficient dispersion device for producing conductive microspheres according to claim 8, characterized in that: The mounting seat (1) is rotatably connected to the barrel body (2), and the rotation axis between the barrel body (2) and the mounting seat (1) is arranged horizontally.

10. The conductive microsphere production and efficient dispersion device according to claim 1, characterized in that: An arc-shaped surface (225) is provided on the inner peripheral wall of the barrel body (2), and the inner peripheral wall of the barrel body (2) is connected to the inner wall of the bottom of the barrel body (2) via the arc-shaped surface (225).

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