A conductive detection device based on nanoscale conductive liquid processing

Abstract

This invention relates to the field of conductivity testing technology, specifically disclosing a conductivity testing device based on nanoscale conductive liquid processing. The device includes a storage mechanism on top of a base for holding the nanoscale conductive liquid and an auxiliary mechanism on top of the storage mechanism for assisting conductivity testing. The storage mechanism includes a first groove, and a second groove is formed on the bottom inner wall of the first groove. The inner diameter of the first groove is larger than the inner diameter of the second groove. An antistatic mechanism is provided on the inner wall of the second groove. This invention, by placing the second conductive rod of the antistatic mechanism inside the bottle, achieves a larger contact area with the nanoscale conductive liquid compared to the traditional method of simply dispersing static electricity through a conductive container. This increases the speed of static electricity removal. Furthermore, in conjunction with a stirring assembly, static electricity is dissipated from the edges and center of the nanoscale conductive liquid, further improving the efficiency of static electricity removal.

Description

Technical Field

[0001] This invention relates to the field of conductivity testing technology, specifically to a conductivity testing device based on nanoscale conductive liquid processing. Background Technology

[0002] Conductivity is a core performance indicator of nanoscale conductive liquids, directly affecting their application performance. Conductivity testing ensures batch-to-batch consistency and avoids equipment malfunctions or safety hazards caused by conductivity fluctuations. Nanoscale conductive liquids typically use nanomaterials such as carbon nanotubes and graphene as core components. Testing requires ensuring that nanoparticles are uniformly dispersed in the solvent to avoid localized high impedance due to particle agglomeration, which could negatively impact overall conductivity. While stirring promotes the dispersion of nanoparticles in nanoscale conductive liquids, the intense friction between the liquid and the stirrer or container walls during stirring leads to charge separation and accumulation. This static electricity generated by friction typically manifests as charge accumulation on the liquid surface or container inner wall. Furthermore, the high specific surface area and strong adsorption of nanoparticles in nanoscale conductive liquids exacerbate the frictional effect, potentially resulting in more significant static electricity generation than in ordinary liquids, thus affecting the accuracy of conductivity testing.

[0003] CN221056558U discloses a wire harness conductivity testing device that is easy to connect. The problem raised in the background art is: the device aims to quickly clamp the workpiece to be tested, and the clamping position and the position of the detection head are exactly on the same line, which facilitates connection and testing.

[0004] Based on existing technologies, the following problems exist: Existing conductivity testing equipment for nano-conductive liquids, while employing conductive containers to store the conductive liquid and dissipate static electricity generated during stirring, requires the nano-conductive liquid to remain in the container for a period of time to ensure complete dissipation. This slow static removal process reduces the efficiency of conductivity testing. Furthermore, during testing, the conductive container containing the nano-conductive liquid typically needs to be placed in a stirring device, and after stirring, transferred to the testing instrument for conductivity detection. During this process, the conductive liquid is exposed to the atmosphere, making it susceptible to contamination due to air contact and potential reactions. The operation is also cumbersome, has low integration, and reduces testing efficiency, thus exhibiting certain shortcomings. To address these issues, a conductivity testing device based on nanoscale conductive liquid processing is proposed. Summary of the Invention

[0005] To overcome the shortcomings of the prior art, the present invention provides a conductivity testing device based on nanoscale conductive liquid processing. After the nanoscale conductive liquid is stirred, it is not necessary to transfer the nanoscale conductive liquid to another location for testing. It has high integration and improves the electrostatic removal speed during stirring, thus avoiding affecting the accuracy of conductivity testing and improving testing efficiency.

[0006] To achieve the above objectives, the present invention provides the following technical solution: a conductivity testing device based on nanoscale conductive liquid processing, comprising a base platform, a storage mechanism disposed on top of the base platform for placing the nanoscale conductive liquid, and an auxiliary mechanism disposed on top of the storage mechanism for assisting conductivity testing. The storage mechanism includes: The first groove is formed on the top of the base platform. The bottom inner wall of the first groove is provided with a second groove, and the inner wall diameter of the first groove is larger than the inner wall diameter of the second groove. The inner wall of the second groove is provided with an anti-static mechanism. The bottle body is fitted into the first groove and abuts against the bottom inner wall of the first groove. The static elimination mechanism includes: A first ring body is fitted onto the inner wall of the second groove. A connecting sleeve is fixedly fitted onto the top of the first ring body. A connecting block is fixedly fitted onto the top of the connecting sleeve. A first conductive block is embedded in the top of the connecting block. A first conductive rod extending to the bottom of the connecting sleeve is fixedly fitted onto the bottom of the first conductive block. A grounding wire extending to the outside of the base is fixedly fitted onto the bottom of the first conductive rod.

[0007] Furthermore, the static elimination mechanism also includes: The second ring is fixedly sleeved on the inner wall of the second groove. The inner wall of the second ring is sleeved on the outer wall of the connecting sleeve. A retaining ring is fixedly sleeved on the inner wall of the second groove and at the bottom of the first ring to limit the downward movement distance of the first ring. A spring is provided inside the second groove, and the two ends of the spring are fixedly connected to the bottom inner wall of the second groove and the bottom of the first ring, respectively. The second conductive rod is fixed to the inner wall of the bottle and arranged in a ring array. An insulating cover is embedded in the lower end of the bottle body. A second conductive block is fixedly installed inside the insulating cover. The second conductive block is connected to a second conductive rod. A connecting groove is opened at the bottom of the bottle body. The inner wall of the connecting groove is adapted to the side wall of the connecting block. The cross-section of the connecting block is designed as a regular hexagon.

[0008] Furthermore, the storage mechanism also includes: The positioning groove is formed on both sides of the outer wall of the bottle and extends to the bottom of the bottle. The inner walls of the first groove are fixed with positioning rods that are adapted to the positioning groove. The connecting cylinder is fixedly installed at the top of the bottle. The lower end of the connecting cylinder is provided with an annular inclined surface to assist the nano-conductive liquid in flowing into the bottle after stirring. The inner diameter of the connecting cylinder is larger than the inner diameter of the bottle. The top and bottom diameters of the inner wall of the annular inclined surface are the same as the inner walls of the connecting cylinder and the bottle, respectively.

[0009] Furthermore, the auxiliary mechanism includes: A baffle is fitted onto the upper inner wall of the connecting cylinder. An air guiding assembly is installed inside the baffle. A rotating ring is rotatably mounted on the top of the baffle. A connecting plate is fixedly mounted on the top of the baffle and on the inner wall of the rotating ring. A rotating assembly for driving the baffle to rotate is installed on the side wall of the connecting plate. A stirring assembly symmetrically arranged around the center point of the connecting plate is installed on the top of the connecting plate. A moving assembly for adjusting the distance between the two stirring assemblies is also installed on the top of the connecting plate. Each stirring assembly contains a detection component. The stirring assembly includes: A first stirring rod is fitted onto the top of the connecting plate and extends to the bottom of the baffle. A second stirring rod and a stirring cylinder are fixedly mounted on the top of the first stirring rod. The inner wall of the stirring cylinder is fitted over the second stirring rod. The outer diameter of the second stirring rod is smaller than that of the first stirring rod. The outer diameter of the stirring cylinder is the same as that of the first stirring rod. Both the first and second stirring rods are made of conductive material, while the stirring cylinder is made of insulating material. Both the first and second stirring rods are hollow. A lifting assembly for adjusting the height of the first stirring rod is provided on the top of the connecting plate, and a connecting assembly for conducting electricity between the two first stirring rods is provided at the bottom of the lifting assembly.

[0010] Furthermore, the detection component includes: The first electrode rod is sleeved inside the first stirring rod and the second stirring rod. The top of the first electrode rod is fixedly provided with the second electrode rod and the protective sleeve. The side wall diameter of the second electrode rod is smaller than that of the first electrode rod. The outer wall diameter of the protective sleeve is the same as that of the first electrode rod. The inner wall of the protective sleeve is sleeved outside the second electrode rod. A sealing ring is fixedly fitted onto the lower end of the inner wall of the first stirring rod and arranged at intervals. The inner wall of the sealing ring abuts against the side wall of the first electrode rod. The limiting ring is fixedly sleeved on the upper end of the inner wall of the stirring cylinder. The inner wall of the limiting ring is in contact with the outer wall of the first electrode rod. Both the limiting ring and the sealing ring are made of insulating material.

[0011] Furthermore, the moving component includes: The movable seat is fixedly mounted on the top of the connecting plate. The inner side of the movable seat is provided with sliding plates symmetrically arranged around the center point of the movable seat. The outer walls of the two stirring cylinders are both sleeved on the top of the sliding plates. The first servo motor is fixedly mounted on the side wall of the movable base. The side wall of the movable base is provided with a first transmission mechanism, so that the first servo motor drives the two sliding plates to move closer or further apart, thereby adjusting the distance between the two first stirring rods.

[0012] Furthermore, the lifting assembly includes: The lifting seat is fixedly installed on the top of the connecting plate. The inner side of the lifting seat is equipped with a connecting seat, which is located on the top of the movable seat. The inner side of the connecting seat is slidably connected to the outer wall of the two mixing cylinders. The second transmission mechanism is located inside the lifting seat, and a second servo motor is fixedly installed on the outside of the lifting seat so that the second servo motor drives the connecting seat to rise and fall through the second transmission mechanism, thereby driving the stirring drum to rise and fall.

[0013] Furthermore, the connection component includes: An insulating base is fixedly installed at the bottom of the connecting base, and a conductive plate is fixedly installed on the inner side wall of the insulating base; The third conductive block is fitted inside the insulating base and is symmetrically arranged around the center point of the insulating base. The side wall of the third conductive block is fixed with a third conductive rod extending outside the insulating base. The third conductive rod is fixedly connected to the second stirring rod. The side wall diameter of the third conductive block is larger than the side wall diameter of the third conductive rod to prevent the third conductive rod from detaching from the insulating base. The fourth conductive block is sleeved on the inner side of the insulating base. The first conductive wire is fixedly provided on the side wall of the fourth conductive block and extends upward along the center of the connecting base. The first rotary joint is fixedly installed at the upper end of the lifting seat. The first conductive wire is connected to one end of the first rotary joint, and the other end of the first rotary joint is connected to the ground wire.

[0014] Furthermore, an adjustment assembly is provided on the top of the base platform, the adjustment assembly including: An adjusting seat is fixedly installed on the top of the base platform. An electric push rod is fixedly installed on the top of the adjusting seat. A connecting platform is fixedly installed on the telescopic shaft of the electric push rod. The bottom of the connecting platform is fixedly connected to the side wall of the rotating ring to adjust the height of the baffle. The detection component also includes; The second conductive wire is fixedly installed on the side wall of the second electrode rod and extends to the outside of the protective sleeve. The second conductive wire is located at the top of the first rotary joint. The second rotary joint is fixedly installed inside the connecting platform. The second conductive wire is connected to one end of the second rotary joint, and the other end of the second rotary joint is connected to an external circuit.

[0015] Furthermore, the rotating assembly includes: The third servo motor is fixedly mounted on the top of the rotating ring. The output shaft of the third servo motor is equipped with a third transmission mechanism so that the third servo motor drives the connecting plate to rotate through the third transmission mechanism, thereby driving the baffle to rotate. The air guiding assembly includes: An arc-shaped plate is fixedly installed at the bottom of the baffle. At the bottom of the baffle and on the outside of the arc-shaped plate, there are electric nozzles arranged in a ring array. All the electric nozzles are designed to be inclined. A movable through groove extending to the top of the connecting plate is opened at the top of the arc-shaped plate. An annular guide box is embedded inside the baffle. The exhaust end of the annular guide box is connected to the air inlet end of the electric nozzle. An air guide pipe is fixedly installed at the exhaust end of the annular guide box.

[0016] This invention provides a conductivity testing device based on nanoscale conductive liquid processing. Compared with existing technologies, it has the following advantages: 1. This invention places the second conductive rod of the static removal mechanism inside the bottle, thereby increasing the contact area with the nano-conductive liquid compared to the traditional method of simply conducting static electricity through a conductive container. This improves the speed of static electricity removal. Furthermore, in conjunction with the stirring assembly, static electricity is conducted away from the edges and center of the nano-conductive liquid, further enhancing the efficiency of static electricity removal.

[0017] 2. This invention keeps the bottle of the storage mechanism stable after storing the nano-conductive liquid, which facilitates the static electricity removal mechanism to conduct away static electricity. In conjunction with the auxiliary mechanism, it avoids contact between the nano-conductive liquid and the outside air while stirring the nano-conductive liquid, thereby reducing contamination of the nano-conductive liquid and reducing friction between the nano-conductive liquid and the air during stirring, thus reducing the generation of static electricity and improving the efficiency of subsequent static electricity removal.

[0018] 3. This invention, through the cooperation of detection components, stirring components, and connecting components, facilitates the dissipation of static electricity generated during stirring, thereby improving the efficiency of static electricity dissipation and thus improving the efficiency of conductivity detection. Furthermore, it does not affect the conductivity detection of the nano-conductive liquid by the detection components. This allows the nano-conductive liquid to be tested for conductivity immediately after stirring without needing to be transferred elsewhere, reducing contact between the nano-conductive liquid and air, further reducing contamination. It also features high integration and improved detection efficiency.

[0019] 4. This invention allows for adjustment of the distance between the two stirring components and the detection component by moving the component, thereby enabling the detection of the conductivity of the nano-conductive liquid from multiple locations and improving the accuracy of the detection. While adjusting the height of the stirring components, the lifting mechanism does not affect the equal spacing of the stirring components. The stirring components, detection components, and moving components are integrated into the top of the baffle, resulting in a high degree of integration. This eliminates the need to transfer the nano-conductive liquid to another location for detection after stirring, improving detection efficiency and reducing contact between the outside air and the nano-conductive liquid, thereby reducing contamination. Furthermore, the stirring and detection components are powered, facilitating practical use. Attached Figure Description

[0020] Figure 1This is a schematic diagram of the overall structure of the present invention; Figure 2 This is a longitudinal sectional view of the machine tool portion of the present invention; Figure 3 This is a schematic diagram of the separation structure of the base platform, storage mechanism, and static elimination mechanism of the present invention; Figure 4 This is a longitudinal sectional view of the bottle body and a schematic diagram of the static electricity removal mechanism of the present invention; Figure 5 This is a schematic diagram of the static elimination mechanism of the present invention; Figure 6 This is a longitudinal sectional view of the bottle body and connecting cylinder of the present invention; Figure 7 This is a schematic diagram of the auxiliary mechanism and storage mechanism of the present invention; Figure 8 This is a schematic diagram of the auxiliary mechanism structure of the present invention; Figure 9 This is a longitudinal sectional view of the baffle, rotating ring, and connecting platform of the present invention; Figure 10 This is a schematic diagram of the rotating component structure of the present invention; Figure 11 This is an exploded view of the gas guiding assembly, baffle, and rotating ring of the present invention; Figure 12 This is a schematic diagram of the moving component, detection component, stirring component, connecting component, and lifting component of the present invention; Figure 13 This is a longitudinal sectional view of the protective sleeve and movable seat of the present invention; Figure 14 This is a longitudinal sectional view of the first stirring rod, the second stirring rod, the stirring cylinder, and the protective sleeve of the present invention. Figure 15 This is a schematic diagram of the transverse cross-sectional structure of the insulating base of the present invention; Figure 16 This is a schematic diagram of the lifting component structure of the present invention; Figure 17 This is a longitudinal sectional view of the connecting seat, the lifting assembly, the connecting assembly, and a structural schematic diagram of the present invention.

[0021] The reference numerals in the above figures are as follows: 1. Base platform; 2. Storage mechanism; 3. Auxiliary mechanism; 4. Adjustment component; 5. Static elimination mechanism; 21. Bottle body; 22. First groove; 23. Positioning groove; 24. Second groove; 25. Connecting cylinder; 26. Annular inclined surface; 31. Baffle; 32. Rotating ring; 33. Stirring assembly; 34. Detection assembly; 35. Connecting assembly; 36. Moving assembly; 37. Connecting plate; 38. Rotating assembly; 39. Air guiding assembly; 30. Lifting assembly; 331. First stirring rod; 332. Stirring drum; 333. Second stirring rod; 334. First rotary joint; 341. Protective sleeve; 342. Second electrode rod; 343. Limiting ring; 344. Sealing ring; 345. First electrode rod; 346. Second conductive wire; 347. Second rotary joint; 351. Third conductive rod; 352. Insulating base; 353. Conductive plate; 354. Third conductive block; 355. Fourth conductive block; 356. First conductive wire; 361. Movable base; 362. First servo motor; 363. First transmission mechanism; 364. Sliding plate; 381. Third transmission mechanism; 382. Third servo motor; 391. Annular guide box; 392. Electric nozzle; 393. Arc plate; 394. Moving channel; 395. Air guide pipe; 301. Lifting seat; 302. Second transmission mechanism; 303. Connecting seat; 304. Second servo motor; 41. Electric actuator; 42. Adjustment seat; 43. Connecting unit; 51. Insulating cover; 52. Second conductive block; 53. Connecting block; 54. Second ring body; 55. First ring body; 56. Grounding wire; 57. Second conductive rod; 58. First conductive block; 59. Retaining ring; 591. First conductive rod; 592. Connecting sleeve. Detailed Implementation

[0022] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0023] Example 1: Please refer to Figure 1 , Figure 2 , Figure 3 and Figure 6 A conductivity testing device based on nanoscale conductive liquid processing includes a base 1, a storage mechanism 2 disposed on top of the base 1 for placing the nanoscale conductive liquid, and an auxiliary mechanism 3 disposed on top of the storage mechanism 2 for assisting conductivity testing. The storage mechanism 2 includes: The first groove 22 is formed on the top of the base 1. The bottom inner wall of the first groove 22 is provided with a second groove 24, and the inner wall diameter of the first groove 22 is larger than the inner wall diameter of the second groove 24. The inner wall of the second groove 24 is provided with an antistatic mechanism 5. The bottle body 21 is fitted into the first groove 22 and abuts against the bottom inner wall of the first groove 22; The storage mechanism 2 also includes: Positioning grooves 23 are formed on both sides of the outer wall of the bottle body 21 and extend to the bottom of the bottle body 21. Positioning rods that are adapted to the positioning grooves 23 are fixedly provided on both sides of the inner wall of the first groove 22. The connecting cylinder 25 is fixedly installed on the top of the bottle body 21. The lower end of the connecting cylinder 25 is provided with an annular inclined surface 26 to assist the nano-conductive liquid to flow into the bottle body 21 after stirring. The inner wall diameter of the connecting cylinder 25 is larger than the inner wall diameter of the bottle body 21. The top diameter and bottom diameter of the inner wall of the annular inclined surface 26 are the same as the inner walls of the connecting cylinder 25 and the bottle body 21, respectively.

[0024] In practice, the nano-conductive liquid that needs to be tested for conductivity is placed inside the bottle 21, and then the bottle 21 is placed inside the first groove 22. Since the inner diameter of the first groove 22 is larger than the inner diameter of the second groove 24, the bottom inner wall of the first groove 22 can support the bottom of the bottle 21 without affecting the cooperation with the static elimination mechanism 5. During the stirring of the nano-conductive liquid, the generated static electricity is conducted away.

[0025] By positioning the second conductive rod 57 of the static eliminator 5 inside the bottle 21, the contact area with the nano-conductive liquid is larger than that of the conventional method of simply conducting static electricity through a conductive container, thereby increasing the speed of static electricity removal. Furthermore, in conjunction with the stirring assembly 33, static electricity is conducted away from the edges and center of the nano-conductive liquid, further improving the efficiency of static electricity removal.

[0026] By keeping the bottle 21 of the storage mechanism 2 stable after storing the nano-conductive liquid, it is easy for the static removal mechanism 5 to conduct away static electricity. In conjunction with the auxiliary mechanism 3, it is easy to avoid contact between the nano-conductive liquid and the outside air while stirring the nano-conductive liquid, thereby reducing the contamination of the nano-conductive liquid and reducing the friction between the nano-conductive liquid and the air during the stirring process, thereby reducing the generation of static electricity and improving the efficiency of subsequent static removal.

[0027] During the stirring process, the detection component 34, stirring component 33, and connecting component 35 work together to facilitate the dissipation of static electricity generated during stirring, thereby improving the efficiency of static electricity dissipation and thus improving the efficiency of conductivity detection. This does not affect the conductivity detection of the nano-conductive liquid by the detection component 34, allowing the nano-conductive liquid to be tested for conductivity without being transferred elsewhere after stirring. This reduces the contact between the nano-conductive liquid and the air, further reducing contamination of the nano-conductive liquid. It also has a high degree of integration, improving detection efficiency.

[0028] The bottle body 21 is positioned by the positioning groove 23 and the positioning rod. When the bottle body 21 is placed in the first groove 22, the bottom opening of the positioning groove 23 moves downward along the top of the positioning rod to position the bottle body 21. This allows the connecting block 53 of the subsequent static elimination mechanism 5 to enter the connecting groove at the bottom of the bottle body 21, thereby improving the stability of the contact between the first conductive block 58 and the second conductive block 52 and improving the stability of static electricity conduction. The positioning groove 23 also makes it easier for workers to hold the bottle body 21 and pick it up.

[0029] The connecting cylinder 25, the annular inclined surface 26 and the baffle 31 of the auxiliary mechanism 3 cooperate to facilitate the baffle 31 to drive the bottle body 21 to move downward under the drive of the adjusting component 4, so as to facilitate the first conductive block 58 and the second conductive block 52 to abut together, and to facilitate the baffle 31 to seal the top of the bottle body 21, so as to prevent external gas from contacting the nano-conductive liquid inside the bottle body 21 and reduce the contamination of the nano-conductive liquid.

[0030] Please see Figure 2 , Figure 3 , Figure 4 and Figure 5 The static eliminator 5 includes: A first ring body 55 is fitted onto the inner wall of the second groove 24. A connecting sleeve 592 is fixedly fitted onto the top of the first ring body 55. A connecting block 53 is fixedly fitted onto the top of the connecting sleeve 592. A first conductive block 58 is embedded in the top of the connecting block 53. A first conductive rod 591 extending to the bottom of the connecting sleeve 592 is fixedly fitted onto the bottom of the first conductive block 58. A grounding wire 56 extending to the outside of the base platform 1 is fixedly fitted onto the bottom of the first conductive rod 591.

[0031] The static eliminator 5 also includes: The second ring 54 is fixedly sleeved on the inner wall of the second groove 24. The inner wall of the second ring 54 is sleeved on the outer wall of the connecting sleeve 592. A retaining ring 59 is fixedly sleeved on the inner wall of the second groove 24 and at the bottom of the first ring 55 to limit the downward movement distance of the first ring 55. A spring is provided inside the second groove 24, and the two ends of the spring are fixedly connected to the bottom inner wall of the second groove 24 and the bottom of the first ring 55, respectively. The second conductive rod 57 is fixedly installed on the inner side wall of the bottle body 21 and arranged in a ring array. An insulating cover 51 is embedded in the lower end of the bottle body 21. A second conductive block 52 is fixedly installed inside the insulating cover 51. The second conductive block 52 is connected to the second conductive rod 57. A connecting groove is opened at the bottom of the bottle body 21. The inner wall of the connecting groove is adapted to the side wall of the connecting block 53. The cross-section of the connecting block 53 is a regular hexagonal design.

[0032] In practical implementation, when the bottle body 21 is placed in the first groove 22, the connecting block 53 is located in the first groove 22 under the elastic support of the spring, thus providing elastic support for the bottle body 21. Under the action of the positioning groove 23 and the positioning rod, the connecting block 53 enters the connecting groove at the bottom of the bottle body 21. Then, when the adjusting component 4 drives the baffle 31 to move downward and squeezes the bottle body 21 to move downward, the bottle body 21 squeezes the connecting block 53 to overcome the elastic force of the spring and move downward until the bottom of the bottle body 21 contacts the bottom inner wall of the first groove 22. At this time, the first ring 55 cannot move downward under the limitation of the retaining ring 59, so that the first conductive block 58 and the second conductive block 52 are pressed together. When the nano-conductive liquid is stirred, the static electricity generated by stirring is transmitted to the first conductive block 58 through the second conductive rod 57 and the second conductive block 52, and conducted through the first conductive block 58 and the grounding wire 56, thereby removing the static electricity in the nano-conductive liquid and avoiding the static electricity from affecting the accuracy of conductivity detection.

[0033] Since the second conductive rod 57 extends into the bottle body 21, it has a larger contact area with the nano-conductive liquid compared to the traditional method of conducting static electricity away through a conductive container, thereby improving the efficiency of static electricity removal.

[0034] Since the first conductive block 58 and the first conductive rod 591 are conductive, the contact points between the bottle body 21 and the second conductive rod 57, the connecting block 53 and the connecting sleeve 592 can all be made of insulating materials to facilitate static electricity stability and directional conduction.

[0035] By adopting a regular hexagonal design for the connecting block 53, the bottle body 21 is prevented from rotating during subsequent stirring after it is inserted into the connecting groove at the bottom of the bottle body 21. In conjunction with the positioning groove 23 and the positioning column, the stability of the bottle body 21 is further improved.

[0036] Example 2: Please refer to Figure 7 , Figure 8 , Figure 9 and Figure 12 The technical difference between this embodiment and Embodiment 1 is that the auxiliary mechanism 3 includes: A baffle 31 is fitted onto the upper inner wall of the connecting cylinder 25. An air guiding component 39 is provided inside the baffle 31. A rotating ring 32 is rotatably provided on the top of the baffle 31. A connecting plate 37 is fixedly provided on the top of the baffle 31 and on the inner wall of the rotating ring 32. A rotating component 38 for driving the baffle 31 to rotate is provided on the side wall of the connecting plate 37. A stirring component 33 is symmetrically arranged around the center point of the connecting plate 37 on the top of the connecting plate 37. A moving component 36 for adjusting the distance between the two stirring components 33 is provided on the top of the connecting plate 37. A detection component 34 is provided inside each stirring component 33.

[0037] Please see Figure 13 , Figure 14 and Figure 15 The stirring component 33 includes: The first stirring rod 331 is sleeved on the top of the connecting plate 37 and extends to the bottom of the baffle 31. The top of the first stirring rod 331 is fixedly provided with a second stirring rod 333 and a stirring cylinder 332. The inner wall of the stirring cylinder 332 is sleeved outside the second stirring rod 333. The outer diameter of the second stirring rod 333 is smaller than the outer diameter of the first stirring rod 331. The outer diameter of the stirring cylinder 332 is the same as the outer diameter of the first stirring rod 331. Both the first stirring rod 331 and the second stirring rod 333 are made of conductive material, and the stirring cylinder 332 is made of insulating material. Both the first stirring rod 331 and the second stirring rod 333 are hollow. The top of the connecting plate 37 is provided with a lifting component 30 for adjusting the height of the first stirring rod 331. The bottom of the lifting component 30 is provided with a connecting component 35 for conducting electricity between the two first stirring rods 331.

[0038] In practical implementation, when the baffle 31 is moved into the connecting cylinder 25 by adjusting component 4, as the baffle 31 moves downward, it drives the bottle body 21 to move downward, so that the bottle body 21 cooperates with the static elimination mechanism 5 to facilitate the conduction of static electricity. At the same time, the baffle 31 is in contact with the inner wall of the connecting cylinder 25, thereby preventing external gas from entering the bottle body 21 and coming into contact with the nano-conductive liquid, thus reducing the contamination of the nano-conductive liquid.

[0039] After the baffle 31 is sealed with the connecting cylinder 25, the two stirring components 33 are driven to rotate by the rotating component 38, thereby stirring the nano-conductive liquid to make the nanomaterials in the nano-conductive liquid uniformly dispersed, so as to prevent the nano-conductive liquid from locally agglomerating and causing high impedance, which would affect the accuracy of conductivity detection. At the same time, through the cooperation of the connecting component 35, the stirring component 33 can be grounded, thereby conducting away static electricity from the middle position of the conductive liquid and improving the efficiency of static electricity conduction.

[0040] After stirring is completed, the first stirring rod 331 is moved upward by the lifting component 30, so that the first electrode rod 345 is exposed in the nano-conductive liquid for testing the conductivity of the nano-conductive liquid.

[0041] By raising and lowering the detection component 34 within the stirring component 33, the stirring component 33 can easily stir the nano-conductive liquid, and avoid excessive contact between the first electrode rod 345 and the nano-conductive liquid during the stirring process. This reduces friction between the first electrode rod 345 and the nano-conductive liquid, thus avoiding affecting the accuracy of subsequent conductivity detection and facilitating stirring and detection.

[0042] The distance between the two stirring components 33 and the detection component 34 can be adjusted by the moving component 36, thereby enabling the conductivity of the nano-conductive liquid to be detected from multiple positions, improving the detection accuracy. Furthermore, the lifting mechanism adjusts the height of the stirring components 33 without affecting the equal spacing of the stirring components 33. The stirring components 33, detection components 34, and moving component 36 are integrated into the top of the baffle 31, resulting in high integration. This eliminates the need to transfer the nano-conductive liquid to another location for detection after stirring, improving detection efficiency while reducing contact between outside air and the nano-conductive liquid, thus reducing contamination. The stirring components 33 and the detection component 34 are energized, facilitating practical use.

[0043] The rotating component 38 drives the connecting plate 37 to rotate, and the connecting plate 37 drives the moving component 36 and the stirring cylinder 332 to rotate, thereby driving the first stirring rod 331 and the second stirring rod 333 to rotate along the center point of the connecting plate 37, thereby stirring the nano-conductive liquid to make the nanomaterials of the nano-conductive liquid uniformly dispersed, thus avoiding the high resistance that would affect the accuracy of conductivity detection.

[0044] By making the outer diameter of the second stirring rod 333 smaller than that of the first stirring rod 331, it is easier for the subsequent connecting assembly 35 to connect the second stirring rod 333, so as to conduct away static electricity, and through the insulating effect of the stirring cylinder 332, without affecting the stability of the vertical movement of the stirring cylinder 332 and the first stirring rod 331.

[0045] The elastic strength of the spring determines the force with which the baffle 31 presses against the bottle body 21 along the connecting cylinder 25, thereby preventing the baffle 31 from exerting too much pressure on the bottle body 21 and affecting the subsequent rotation of the baffle 31. The specific force of the spring can be selected according to the actual use situation and is not limited here.

[0046] Please see Figure 13 , Figure 14 and Figure 15 The detection component 34 includes: The first electrode rod 345 is sleeved inside the first stirring rod 331 and the second stirring rod 333. The top of the first electrode rod 345 is fixedly provided with a second electrode rod 342 and a protective sleeve 341. The side wall diameter of the second electrode rod 342 is smaller than the side wall diameter of the first electrode rod 345. The outer wall diameter of the protective sleeve 341 is the same as the side wall diameter of the first electrode rod 345. The inner wall of the protective sleeve 341 is sleeved outside the second electrode rod 342. The sealing ring 344 is fixedly sleeved on the lower end of the inner wall of the first stirring rod 331 and arranged at intervals. The inner wall of the sealing ring 344 abuts against the side wall of the first electrode rod 345. The limiting ring 343 is fixedly sleeved on the upper end of the inner wall of the stirring cylinder 332. The inner wall of the limiting ring 343 is in contact with the outer wall of the first electrode rod 345. Both the limiting ring 343 and the sealing ring 344 are made of insulating material.

[0047] The detection component 34 also includes; The second conductive wire 346 is fixedly disposed on the side wall of the second electrode rod 342 and extends to the outside of the protective sleeve 341. The second conductive wire 346 is located at the top of the first rotary joint 334. The second rotary joint 347 is fixedly installed inside the connecting platform 43. The second conductive wire 346 is connected to one end of the second rotary joint 347, and the other end of the second rotary joint 347 is connected to an external circuit.

[0048] In practice, after stirring is completed, the lifting assembly 30 moves the first stirring rod 331 and the like upward, thereby exposing the first electrode rod 345 in the nano-conductive liquid. Then, it is connected to an external circuit through the second electrode rod 342, the second conductive wire 346 and the second rotary joint 347 to facilitate the conductivity detection of the nano-conductive liquid.

[0049] The sealing ring 344 and the limiting ring 343 prevent the first electrode rod 345 from contacting the first stirring rod 331, thereby preventing the circuit of the first electrode rod 345 and the first stirring rod 331 from being connected in series and affecting the actual use. In addition, the sealing ring 344 can seal the first stirring rod 331 and the first electrode rod 345, preventing the nano-conductive liquid from entering the space between the first electrode rod 345 and the first stirring rod 331 during the stirring process.

[0050] The second conductive wire 346 is rotatably connected via the second rotary joint 347, so that the first electrode rod 345 can still be connected to the external circuit when it rotates with the rotating assembly 38, thus not affecting the actual detection use. The second rotary joint 347 is located on top of the first rotary joint 334, so it does not obstruct the second conductive wire 346 of the stirring assembly 33. The second conductive wire 346 is reserved with length to move with the detection assembly 34, so as to facilitate the adjustment and use of the moving assembly 36.

[0051] Please see Figure 15 and Figure 17 The connection component 35 includes: An insulating base 352 is fixedly disposed at the bottom of the connecting base 303, and a conductive plate 353 is fixedly disposed on the inner side wall of the insulating base 352; The third conductive block 354 is sleeved on the inner side of the insulating seat 352 and is symmetrically arranged with respect to the center point of the insulating seat 352. The side wall of the third conductive block 354 is fixedly provided with a third conductive rod 351 extending out of the insulating seat 352. The third conductive rod 351 is fixedly connected to the second stirring rod 333. The side wall diameter of the third conductive block 354 is larger than the side wall diameter of the third conductive rod 351 to restrict the third conductive rod 351 from detaching from the insulating seat 352. The fourth conductive block 355 is sleeved on the inner side of the insulating base 352. The side wall of the fourth conductive block 355 is fixedly provided with the first conductive wire 356, which extends upward along the center of the connecting base 303. The first rotary joint 334 is fixedly installed on the upper end of the lifting seat 301. The first conductive wire 356 is connected to one end of the first rotary joint 334, and the other end of the first rotary joint 334 is connected to the ground wire.

[0052] In practical implementation, the first rotary joint 334 enables connection to the first conductive wire 356 at the center of the connecting plate 37, facilitating connection to the external grounding wire 56. This allows for easy dissipation of static electricity while stirring. When the spacing of the stirring components 33 is adjusted via the moving component 36, the first stirring rod 331 moves accordingly. At this time, the first stirring rod 331 drives the third conductive rod 351 and the third conductive block 354 to move within the insulating base 352 and to contact the conductive plate 353 in real time. This facilitates the dissipation of static electricity through the fourth conductive block 355, the first conductive wire 356, and the external grounding wire 56. This allows for easy adjustment of the spacing of the stirring components 33 without affecting the dissipation of static electricity.

[0053] Please see Figure 13 The moving component 36 includes: The movable seat 361 is fixedly mounted on the top of the connecting plate 37. The inner side of the movable seat 361 is slidably provided with sliding plates 364 symmetrically arranged around the center point of the movable seat 361. The outer walls of the two stirring cylinders 332 are both sleeved on the top of the sliding plates 364. The first servo motor 362 is fixedly mounted on the side wall of the movable seat 361. The side wall of the movable seat 361 is provided with a first transmission mechanism 363, so that the first servo motor 362 drives the two sliding plates 364 to move closer or further apart through the first transmission mechanism 363, thereby adjusting the distance between the two first stirring rods 331.

[0054] In practical implementation, the first servo motor 362 and the first transmission mechanism 363 drive the two sliding plates 364 to move closer or further apart, thereby adjusting the spacing of the stirring assembly 33 and the spacing of the detection assembly 34, so as to detect the conductivity of the nano-conductive liquid from different positions and improve the accuracy of the detection.

[0055] The first transmission mechanism 363 includes first slide grooves on both sides of the side wall of the movable seat 361. A first slider is placed inside each of the first slide grooves. The first slider passes through the movable seat 361 and is fixedly connected to the sliding plate 364. A bidirectional lead screw is rotatably provided on the inner wall of each of the first slide grooves. The bidirectional lead screw is threadedly connected to the first slider, thereby driving the sliding plates 364 to move closer or further apart. The two bidirectional lead screws are connected by a transmission through gears and chains. The first servo motor 362 is fixedly connected to one of the bidirectional lead screws through a coupling to complete the drive. This is prior art and will not be described in detail here.

[0056] Please see Figure 16 and Figure 17 The lifting assembly 30 includes: The lifting seat 301 is fixedly installed on the top of the connecting plate 37. The inner side of the lifting seat 301 is provided with a connecting seat 303, which is located on the top of the movable seat 361. The inner side of the connecting seat 303 is slidably connected to the outer wall of the two stirring cylinders 332. The second transmission mechanism 302 is located inside the lifting seat 301, and the second servo motor 304 is fixedly installed on the outside of the lifting seat 301, so that the second servo motor 304 drives the connecting seat 303 to rise and fall through the second transmission mechanism 302, thereby driving the stirring drum 332 to rise and fall.

[0057] In specific implementation, the connecting seat 303 is driven to rise and fall by the second servo motor 304 and the second transmission mechanism 302. Since the stirring drum 332 can slide horizontally within the connecting seat 303, when the connecting seat 303 rises and falls, it can drive the stirring drum 332 to rise and fall without affecting the adjustment of the spacing of the stirring components 33 by the moving component 36.

[0058] The second transmission mechanism 302 includes a second slide groove opened inside the lifting seat 301. A second slider is placed inside the second slide groove. The second slider is fixedly connected to the connecting seat 303. A threaded rod is rotatably provided on the inner wall of the second slide groove. The threaded rod is connected to the output shaft of the second servo motor 304 through a gear, thereby driving the threaded rod to rotate, so as to drive the connecting seat 303 to rise and fall.

[0059] Please see Figure 1 An adjustment component 4 is provided on the top of the base 1. The adjustment component 4 includes: An adjusting seat 42 is fixedly mounted on the top of the base 1. An electric push rod 41 is fixedly mounted on the top of the adjusting seat 42. A connecting platform 43 is fixedly mounted on the telescopic shaft of the electric push rod 41. The bottom of the connecting platform 43 is fixedly connected to the side wall of the rotating ring 32 to adjust the height of the baffle 31.

[0060] In practical implementation, the rotating ring 32 is rotatably connected to the baffle 31, which facilitates the lifting and lowering of the baffle 31 without affecting the rotation of the baffle 31.

[0061] Please see Figure 10 The rotating assembly 38 includes: The third servo motor 382 is fixedly mounted on the top of the rotating ring 32. The output shaft of the third servo motor 382 is provided with a third transmission mechanism 381, so that the third servo motor 382 drives the connecting plate 37 to rotate through the third transmission mechanism 381, thereby driving the baffle 31 to rotate.

[0062] In specific implementation, the third transmission mechanism 381 includes a gear ring fixedly sleeved on the side wall of the connecting plate 37 and a gear fixedly mounted on the output shaft of the third servo motor 382. The gear meshes with the gear ring, thereby driving the connecting plate 37 to rotate through the third servo motor 382, ​​so as to drive the stirring assembly 33 and the like to rotate.

[0063] Please see Figure 11 The air guiding assembly 39 includes: An arc-shaped plate 393 is fixedly installed at the bottom of the baffle 31. At the bottom of the baffle 31 and on the outside of the arc-shaped plate 393, an electric nozzle 392 arranged in a ring array is fixedly installed. All the electric nozzles 392 are designed to be inclined. A movable through groove 394 extending to the top of the connecting plate 37 is opened at the top of the arc-shaped plate 393. The annular guide box 391 is embedded inside the baffle 31. The exhaust end of the annular guide box 391 is connected to the air inlet end of the electric nozzle 392. The exhaust end of the annular guide box 391 is fixedly provided with an air guide pipe 395.

[0064] In practice, after stirring is completed, there may be residual nano-conductive liquid at the bottom of the arc plate 393. To address this, the electric nozzle 392 is opened to blow the high-pressure inert gas in the annular guide box 391 out along the bottom of the arc plate 393, thereby facilitating the entry of the nano-conductive liquid into the bottle 21. Then, the electric nozzle 392 is closed.

[0065] The first servo motor 362 and electric push rod 41 of the present invention are connected to the controller and external power supply through wires to facilitate actual control and use. The conductivity of the nano-conductive liquid detected by the two first electrode rods 345 is monitored by an external computer, etc. These are all prior art and will not be described in detail here.

[0066] In implementation of this invention, the nano-conductive liquid to be tested for conductivity is placed inside the bottle 21. Then, the bottle 21 is positioned along the positioning rod into the first groove 22. Since the inner diameter of the first groove 22 is larger than the inner diameter of the second groove 24, the bottom inner wall of the first groove 22 can support the bottom of the bottle 21. Then, the adjusting mechanism drives the rotating ring 32 and the baffle 31 to move downward, so that the baffle 31 is fitted inside the connecting cylinder 25 and continuously presses the bottle 21 downward, so that the bottom of the bottle 21 contacts the bottom inner wall of the first groove 22. At this time, the first conductive block 58 and the second conductive block 52 are in contact, so that the static electricity generated by the nano-conductive liquid in the bottle 21 during subsequent stirring can be conducted away along the grounding wire 56, thereby reducing the residue of static electricity in the nano-conductive liquid.

[0067] After the first conductive block 58 and the second conductive block 52 are attached, the rotating component 38 drives the connecting plate 37 to rotate, thereby driving the rotating plate, stirring component 33 and detection component 34 to rotate, so as to stir the nano-conductive liquid through the first stirring rod 331, so that the nanomaterials in the nano-conductive liquid are evenly dispersed, so as to avoid the nanomaterials from agglomerating and causing local high impedance, which would affect the conductivity detection. The static electricity generated during the stirring process is conducted away from different positions of the nano-conductive liquid through the stirring component 33 and the static electricity removal component, thereby improving the efficiency of static electricity removal and improving the detection efficiency. During the stirring process, the baffle 31 is attached to the inner wall of the connecting cylinder 25, thereby preventing external gas from entering the bottle 21, thus preventing the nano-conductive liquid from contacting the outside air, thereby reducing the contamination of the nano-conductive liquid, and reducing the friction between the conductive liquid and the air, thus reducing the generation of static electricity.

[0068] After stirring is completed, the first stirring rod 331 and the second stirring rod 333 are moved upward by the lifting assembly 30 so that the first electrode rod 345 is exposed, thereby making the first electrode rod 345 contact with the nano-conductive liquid, so that the conductivity of the nano-conductive liquid can be detected by connecting the two first electrode rods 345.

[0069] Furthermore, any content not described in detail in this specification is existing technology known to those skilled in the art.

[0070] It should be noted that, in this document, relational terms such as "first" and "second" are used only to distinguish one entity or operation from another, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Furthermore, the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article, or apparatus.

[0071] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A conductivity testing device based on nanoscale conductive liquid processing, comprising a base platform, characterized in that, It also includes a storage mechanism disposed on top of the base for placing the nano-conductive liquid and an auxiliary mechanism disposed on top of the storage mechanism for assisting conductivity detection. The storage mechanism includes: The first groove is formed on the top of the base platform. The bottom inner wall of the first groove is provided with a second groove, and the inner wall diameter of the first groove is larger than the inner wall diameter of the second groove. The inner wall of the second groove is provided with an anti-static mechanism. The bottle body is fitted into the first groove and abuts against the bottom inner wall of the first groove. A connecting cylinder is fixedly mounted on the top of the bottle body. The static elimination mechanism includes: A first ring body is fitted onto the inner wall of the second groove. A connecting sleeve is fixedly fitted onto the top of the first ring body. A connecting block is fixedly fitted onto the top of the connecting sleeve. A first conductive block is embedded in the top of the connecting block. A first conductive rod extending to the bottom of the connecting sleeve is fixedly fitted onto the bottom of the first conductive block. A grounding wire extending to the outside of the base is fixedly fitted onto the bottom of the first conductive rod. The auxiliary mechanism includes: A baffle is fitted onto the upper inner wall of the connecting cylinder. An air guiding assembly is installed inside the baffle. A rotating ring is rotatably mounted on the top of the baffle. A connecting plate is fixedly mounted on the top of the baffle and on the inner wall of the rotating ring. A rotating assembly for driving the baffle to rotate is installed on the side wall of the connecting plate. A stirring assembly symmetrically arranged around the center point of the connecting plate is installed on the top of the connecting plate. A moving assembly for adjusting the distance between the two stirring assemblies is also installed on the top of the connecting plate. Each stirring assembly contains a detection component. The stirring assembly includes: A first stirring rod is sleeved on the top of the connecting plate and extends to the bottom of the baffle. A second stirring rod and a stirring cylinder are fixedly mounted on the top of the first stirring rod. The inner wall of the stirring cylinder is sleeved outside the second stirring rod. A lifting assembly for adjusting the height of the first stirring rod is provided on the top of the connecting plate. A connection assembly for conducting electricity between the two first stirring rods is provided at the bottom of the lifting assembly. The detection assembly includes: The first electrode rod is sleeved inside the first stirring rod and the second stirring rod. The top of the first electrode rod is fixedly provided with the second electrode rod and the protective sleeve. The side wall diameter of the second electrode rod is smaller than that of the first electrode rod. The outer wall diameter of the protective sleeve is the same as that of the first electrode rod. The inner wall of the protective sleeve is sleeved outside the second electrode rod. A sealing ring is fixedly fitted onto the lower end of the inner wall of the first stirring rod and arranged at intervals. The inner wall of the sealing ring abuts against the side wall of the first electrode rod. The limiting ring is fixedly sleeved on the upper end of the inner wall of the stirring cylinder. The inner wall of the limiting ring is in contact with the outer wall of the first electrode rod. Both the limiting ring and the sealing ring are made of insulating material.

2. The conductivity testing device based on nanoscale conductive liquid processing according to claim 1, characterized in that, The static elimination mechanism also includes: The second ring is fixedly sleeved on the inner wall of the second groove. The inner wall of the second ring is sleeved on the outer wall of the connecting sleeve. A retaining ring is fixedly sleeved on the inner wall of the second groove and at the bottom of the first ring to limit the downward movement distance of the first ring. A spring is provided inside the second groove, and the two ends of the spring are fixedly connected to the bottom inner wall of the second groove and the bottom of the first ring, respectively. The second conductive rod is fixed to the inner wall of the bottle and arranged in a ring array. An insulating cover is embedded in the lower end of the bottle body. A second conductive block is fixedly installed inside the insulating cover. The second conductive block is connected to a second conductive rod. A connecting groove is opened at the bottom of the bottle body. The inner wall of the connecting groove is adapted to the side wall of the connecting block. The cross-section of the connecting block is designed as a regular hexagon.

3. The conductivity testing device based on nanoscale conductive liquid processing according to claim 2, characterized in that, The storage mechanism also includes: The positioning groove is formed on both sides of the outer wall of the bottle and extends to the bottom of the bottle. The inner walls of the first groove are fixed with positioning rods that are adapted to the positioning groove. The lower end of the connecting cylinder is provided with an annular inclined surface to assist the nano-conductive liquid to flow into the bottle after stirring. The inner wall diameter of the connecting cylinder is larger than the inner wall diameter of the bottle. The top diameter and bottom diameter of the inner wall of the annular inclined surface are the same as the inner walls of the connecting cylinder and the bottle, respectively.

4. The conductivity testing device based on nanoscale conductive liquid processing according to claim 1, characterized in that, The outer diameter of the second stirring rod is smaller than that of the first stirring rod, and the outer diameter of the stirring cylinder is the same as that of the first stirring rod. Both the first and second stirring rods are made of conductive material, and the stirring cylinder is made of insulating material. Both the first and second stirring rods are hollow.

5. The conductivity testing device based on nanoscale conductive liquid processing according to claim 4, characterized in that, The moving component includes: The movable seat is fixedly mounted on the top of the connecting plate. The inner side of the movable seat is provided with sliding plates symmetrically arranged around the center point of the movable seat. The outer walls of the two stirring cylinders are both sleeved on the top of the sliding plates. The first servo motor is fixedly mounted on the side wall of the movable base. The side wall of the movable base is provided with a first transmission mechanism, so that the first servo motor drives the two sliding plates to move closer or further apart, thereby adjusting the distance between the two first stirring rods.

6. The conductivity testing device based on nanoscale conductive liquid processing according to claim 4, characterized in that, The lifting assembly includes: The lifting seat is fixedly installed on the top of the connecting plate. The inner side of the lifting seat is equipped with a connecting seat, which is located on the top of the movable seat. The inner side of the connecting seat is slidably connected to the outer wall of the two mixing cylinders. The second transmission mechanism is located inside the lifting seat, and a second servo motor is fixedly installed on the outside of the lifting seat so that the second servo motor drives the connecting seat to rise and fall through the second transmission mechanism, thereby driving the stirring drum to rise and fall.

7. The conductivity testing device based on nanoscale conductive liquid processing according to claim 6, characterized in that, The connection component includes: An insulating base is fixedly installed at the bottom of the connecting base, and a conductive plate is fixedly installed on the inner side wall of the insulating base; The third conductive block is fitted inside the insulating base and is symmetrically arranged around the center point of the insulating base. The side wall of the third conductive block is fixed with a third conductive rod extending outside the insulating base. The third conductive rod is fixedly connected to the second stirring rod. The side wall diameter of the third conductive block is larger than the side wall diameter of the third conductive rod to prevent the third conductive rod from detaching from the insulating base. The fourth conductive block is sleeved on the inner side of the insulating base. The first conductive wire is fixedly provided on the side wall of the fourth conductive block and extends upward along the center of the connecting base. The first rotary joint is fixedly installed at the upper end of the lifting seat. The first conductive wire is connected to one end of the first rotary joint, and the other end of the first rotary joint is connected to the ground wire.

8. The conductivity testing device based on nanoscale conductive liquid processing according to claim 7, characterized in that, An adjustment assembly is provided on the top of the base platform, the adjustment assembly including: An adjusting seat is fixedly installed on the top of the base platform. An electric push rod is fixedly installed on the top of the adjusting seat. A connecting platform is fixedly installed on the telescopic shaft of the electric push rod. The bottom of the connecting platform is fixedly connected to the side wall of the rotating ring to adjust the height of the baffle. The detection component also includes; The second conductive wire is fixedly installed on the side wall of the second electrode rod and extends to the outside of the protective sleeve. The second conductive wire is located at the top of the first rotary joint. The second rotary joint is fixedly installed inside the connecting platform. The second conductive wire is connected to one end of the second rotary joint, and the other end of the second rotary joint is connected to an external circuit.

9. The conductivity testing device based on nanoscale conductive liquid processing according to claim 4, characterized in that, The rotating assembly includes: The third servo motor is fixedly mounted on the top of the rotating ring. The output shaft of the third servo motor is equipped with a third transmission mechanism so that the third servo motor drives the connecting plate to rotate through the third transmission mechanism, thereby driving the baffle to rotate. The air guiding assembly includes: An arc-shaped plate is fixedly installed at the bottom of the baffle. At the bottom of the baffle and on the outside of the arc-shaped plate, there are electric nozzles arranged in a ring array. All the electric nozzles are designed to be inclined. A movable through groove extending to the top of the connecting plate is opened at the top of the arc-shaped plate. An annular guide box is embedded inside the baffle. The exhaust end of the annular guide box is connected to the air inlet end of the electric nozzle. An air guide pipe is fixedly installed at the exhaust end of the annular guide box.

Images