Aluminum oxide polishing solution production detection equipment and technology

Abstract

The invention relates to the technical field of aluminum oxide polishing solution production, in particular to aluminum oxide polishing solution production detection equipment and technology.The aluminum oxide polishing solution production detection equipment comprises a body, a rotating cylinder is installed on the lower side of the body through a plurality of bolts, a discharging pipe is fixedly installed on the lower side of the rotating cylinder, and the lower side of the body is further in threaded connection with a rotor; a stirring assembly is mounted in the rotating cylinder, the stirring assembly comprises a first threaded rod rotationally mounted at the bottom in the rotating cylinder, the outer side of the first threaded rod is in threaded sleeve connection with a moving ring, the moving ring and the rotating cylinder are in up-down sliding connection, and a rotating ring is rotationally connected to the lower side of the moving ring. Under the hindering effect of the moving ring, the possibility of liquid splashing can be greatly reduced, then the subsequent cleaning workload is reduced, and during detection, the first threaded rod can be rotated to drive the moving ring to correspondingly move through the transmission structure, so that the mixing efficiency is improved.

Description

Technical Field

[0001] The present invention relates to the technical field of alumina polishing liquid production, and particularly relates to an alumina polishing liquid production detection device and process. Background Art

[0002] Alumina polishing liquid is a chemical product mainly made of alumina, which has characteristics such as high density, high hardness, and high-temperature stability. It is mainly used for surface polishing and optical processing, and can remove surface defects, improve optical transparency and glossiness. During the production process of alumina polishing liquid, the viscosity of the polishing liquid not only affects the polishing effect and speed, but also affects the surface quality of the product. When the viscosity of the polishing liquid is too high, it is easy to cause phenomena such as smudging and fine cracks on the polished surface, and in severe cases, it may also affect the glossiness and transparency of the product. When the viscosity of the polishing liquid is too low, it is easy to cause problems such as soft brush foaming and hair loss, which also affect the surface finish of the product. Therefore, during the production of alumina polishing liquid, it is necessary to frequently detect the viscosity of the preparation liquid many times for timely adjustment; Currently, during the detection process of the preparation liquid, a rotational viscometer is mainly used for detection. Take a small amount of the preparation liquid, add a stabilizing liquid for dilution while keeping the preparation liquid at an appropriate temperature, select an appropriate rotor (hanging weight), place the mixed liquid under the rotational viscometer, start the rotational viscometer, and start the detection. The overall operation is simple; However, in the actual detection process, the traditional rotating cylinder is not completely sealed, and the rotating cylinder will cause the utilized alumina polishing liquid to splash, increasing the subsequent cleaning workload. And in the actual working process, multiple detections are required. Since the alumina polishing liquid has a certain viscosity, it takes a certain amount of time to pour out the alumina polishing liquid from the rotating cylinder. At the same time, in order to improve the accuracy of the detection results, after each detection of the viscosity of the alumina polishing liquid, a cleaning operation is required. Each time a cleaning operation is performed, the rotating cylinder and the rotor need to be completely removed for cleaning, which is time-consuming and laborious and very troublesome. Therefore, an alumina polishing liquid production detection device and process are provided. Summary of the Invention

[0003] The present invention provides an alumina polishing liquid production detection device and process to solve the problems in the background art.

[0004] To achieve the above object, the present invention adopts the following technical solutions: An alumina polishing liquid production detection device, including a main body, a rotating cylinder is installed on the lower side of the main body through a plurality of bolts, a discharge pipe is fixedly installed on the lower side of the rotating cylinder, a rotor is also threadedly connected to the lower side of the main body, a stirring assembly is installed in the rotating cylinder, the stirring assembly includes a first threaded rod rotatably installed at the bottom of the rotating cylinder, a moving ring is threadedly sleeved on the outer side of the first threaded rod, the moving ring is slidably connected to the rotating cylinder up and down, a rotating ring is rotatably connected to the lower side of the moving ring, a plurality of first connecting rods are circumferentially fixedly connected to the lower side of the rotating ring, a stirring cylinder is slidably connected to the outer sides of the plurality of first connecting rods, a third spring is fixedly connected between the first connecting rod and the stirring cylinder, the same driven ring is fixedly connected to the outer side of the stirring cylinder, a fourth connecting rod is fixedly connected to the upper side of the rotating ring, one end of the fourth connecting rod extends into the moving ring, and a semi-tooth ring is fixedly connected to the inner side of the moving ring where the fourth connecting rod is located, a moving frame is slidably connected in the moving ring, a first spring is fixedly connected between the moving frame and the moving ring, a third connecting rod is fixedly connected to the side wall of the moving frame, a rack is fixedly connected to the outer side of the third connecting rod, and the rack meshes with the semi-tooth ring.

[0005] Preferably, the stirring assembly further includes two fixed frames fixedly installed in the moving ring, the same moving rod is slidably connected in the two fixed frames, a driven rod is fixedly connected to the outer side of the moving rod, a moving plate is slidably connected to the outer side of the driven rod, a baffle is also fixedly connected to the outer side of the driven rod, a fixed rod is slidably connected in the rotating cylinder, a plurality of fixed rings are evenly fixedly connected to the outer side of the fixed rod, two second threaded rods are threadedly connected in the moving ring, the upper sides of the two second threaded rods are rotatably connected to the same second connecting rod, a first connecting ring is rotatably connected to the outer side of the driven ring, and the two second threaded rods are rotatably connected to the first connecting ring.

[0006] Preferably, a cleaning assembly for cleaning the rotor is installed in the rotating cylinder, the cleaning assembly includes a plurality of third threaded rods rotatably installed on the lower side of the rotating ring, the plurality of third threaded rods threadedly penetrate through the driven ring, a first gear is slidably connected to the inside of the driven ring for each of the third threaded rods, a plurality of fifth connecting rods are rotatably connected to the inside of the driven ring, a second gear is fixedly connected to the outer side of each of the fifth connecting rods, the second gear meshes with the first gear, a ratchet is also fixedly connected to the outer side of each of the fifth connecting rods, a plurality of sixth connecting rods are slidably connected to the inside of the driven ring, a connecting plate is fixedly connected to the outer side of each of the sixth connecting rods, a fifth spring is fixedly connected between the connecting plate and the driven ring, a seventh connecting rod is slidably connected to the outer side of the connecting plate, a fourth spring is fixedly connected between the sixth connecting rod and the connecting plate, a triangular plate is also slidably connected to the outer side of the sixth connecting rod, and a sixth spring is fixedly connected between the seventh connecting rod and the triangular plate.

[0007] Preferably, a telescopic sleeve is fixedly connected between the moving plate and the moving ring, and a second spring is also fixedly connected between the moving plate and the moving ring.

[0008] Preferably, a gasket is fixedly installed between the fixed rod and the rotating cylinder.

[0009] Preferably, a rubber sleeve is fixedly sleeved on the outer side of the moving ring.

[0010] Preferably, a plurality of balance rotating rods are installed on the outer side of the body.

[0011] An alumina polishing liquid production and detection process includes the following steps: S1. Sample preparation: First, multiple groups of alumina polishing liquid samples to be detected need to be prepared. The sampling of the samples should be representative to ensure that the overall production quality can be reflected. S2. Viscosity detection: In the viscosity detection link, a rotary viscometer is used to measure the viscosity of the polishing liquid. S3. Data recording and analysis: During the detection process, the viscosity data, including the viscosity value and the change trend information, are recorded in detail. By comparing the viscosity data of different batches or different formulations of the polishing liquid, their differences and change rules are analyzed to optimize the production process. S4. Adjust the production process: According to the viscosity detection results, the production process is adjusted. If the viscosity does not meet the requirements, the viscosity performance can be improved by adjusting the raw material ratio, stirring time, and temperature parameters. For example, the dosage of the suspending agent and dispersant is increased or decreased, and the stirring speed and time are adjusted. S5. Repeat detection: After the production process is adjusted, the viscosity detection is carried out again to ensure that the viscosity of the produced polishing liquid meets the requirements. This process is repeated until the ideal viscosity range is reached.

[0012] The present invention has the following beneficial effects: 1. First, when detecting the viscosity of the alumina polishing liquid, this device is started to drive the rotating cylinder to rotate. Under the blocking effect of the moving ring, the possibility of liquid splashing will be greatly reduced, thereby reducing the subsequent cleaning workload. And when detecting, the first threaded rod can be rotated, and through the transmission structure, the moving ring is driven to perform corresponding movements, thereby improving the mixing efficiency. 2. During the rotation of the first threaded rod, when the first threaded rod rotates clockwise or counterclockwise, the moving ring will perform different operations. The combination of these two different methods can further improve the mixing effect. 3. Secondly, after the viscosity measurement of the alumina polishing liquid is completed, the first threaded rod can be rotated again, and the position of the fixed rod can be adjusted to make the moving ring in a sealed state. At this time, the moving ring that moves up and down can assist in the discharge of the alumina polishing liquid, improving the discharge efficiency of the alumina polishing liquid. 4. Finally, after the viscosity measurement of the alumina polishing liquid is completed, pour the cleaning liquid into the rotating cylinder and rotate the first threaded rod again. This can not only achieve the cleaning effect of the inside of the rotating cylinder, but also achieve a simple cleaning effect on the rotor. There is no need to completely disassemble the entire device, and the cleaning effect is good, the operation is simple, and the practical effect is good. Description of the Drawings

[0013] Figure 1 is a three-dimensional structural schematic diagram of the present invention; Figure 2 is a structural schematic diagram of another angle of the present invention; Figure 3 is a structural schematic diagram of the rotating cylinder in the present invention; Figure 4 is a sectional structural schematic diagram of the rotating cylinder in the present invention; Figure 5 is a structural schematic diagram of the moving ring in the present invention; Figure 6 is a connection schematic diagram of the inside of the moving ring and the fixed ring in the present invention; Figure 7 is a structural schematic diagram of the inside of the moving ring in the present invention; Figure 8 is a top view structural schematic diagram of the inside of the moving ring in the present invention; Figure 9 is a connection schematic diagram of the fixed frame and the moving rod in the present invention; Figure 10 is a sectional structural schematic diagram of the stirring cylinder in the present invention; Figure 11 is a connection schematic diagram of the third connecting rod and the seventh connecting rod inside the moving ring in the present invention.

[0014] In the figure: 1 body; 2 rotating cylinder; 3 rotor; 4 first threaded rod; 5 discharge pipe; 6 fixed rod; 7 fixed ring; 8 moving ring; 9 first connecting ring; 10 mixing cylinder; 11 driven ring; 12 first connecting rod; 13 rotating ring; 14 semi-toothed ring; 15 fixed frame; 16 moving rod; 17 baffle; 18 second connecting rod; 19 third connecting rod; 20 fourth connecting rod; 21 moving frame; 22 triangular plate; 23 first spring; 24 driven rod; 25 moving plate; 26 telescopic sleeve; 27 second spring; 28 second threaded rod; 29 rack; 30 third spring; 31 seventh connecting rod; 32 third threaded rod; 33 first gear; 34 fifth connecting rod; 35 second gear; 36 ratchet; 37 sixth connecting rod; 38 connecting plate; 39 fifth spring. Detailed implementation manner

[0015] Refer to Figure 1 - Figure 11 , a production detection device for alumina polishing liquid, including a body 1. A rotating cylinder 2 is installed on the lower side of the body 1 through a plurality of bolts. A discharge pipe 5 is fixedly installed on the lower side of the rotating cylinder 2. A rotor 3 is also threadedly connected to the lower side of the body 1; First, a display screen is fixedly installed on the front side of the body 1. A plurality of buttons are also installed on the front side of the body 1. A bracket is installed on the lower side of the body 1. A screw rod for adjusting the height of the bracket is installed on the outer side of the bracket. A plurality of balance rotating rods for adjusting the balance of the bracket are fixedly installed on the lower side of the bracket. Two clamping plates are fixedly connected to the lower side of the body 1. A plurality of bolts penetrate through the clamping plates and are threadedly connected to the clamping plates. A detection head is fixedly installed on the lower side of the body 1. The rotor 3 is threadedly installed in the detection head. When it is necessary to perform a viscosity detection operation on the alumina polishing liquid, pour the alumina polishing liquid sampling liquid into the rotating cylinder 2, and pour an appropriate amount of stabilizing liquid, and perform corresponding mixing to make the liquid inside the rotating cylinder 2 within a suitable temperature range. Select a suitable rotor 3 and install the rotor 3 on the lower side of the body 1. Through bolts, install the rotating cylinder 2 in the clamping plates on the lower side of the body 1. Adjust the rotation speed of the rotating cylinder 2 through the buttons, start the body 1, the body 1 drives the rotating cylinder 2 to rotate, and start the viscosity detection. Then read the data displayed on the display screen, record and analyze. The above are all prior arts and will not be elaborated further; Such as Figure 4 , Figure 5 , Figure 6 , Figure 7 , Figure 8 , Figure 9 , Figure 10, a stirring assembly is installed inside the rotating cylinder 2. The stirring assembly includes a first threaded rod 4 rotatably installed at the inner bottom of the rotating cylinder 2. A moving ring 8 is threadedly sleeved on the outer side of the first threaded rod 4. The moving ring 8 is slidably connected to the rotating cylinder 2 in the up and down direction. A rotating ring 13 is rotatably connected to the lower side of the moving ring 8. A plurality of first connecting rods 12 are circumferentially and fixedly connected to the lower side of the rotating ring 13. A stirring cylinder 10 is slidably connected to the outer sides of the plurality of first connecting rods 12. A third spring 30 is fixedly connected between the first connecting rod 12 and the stirring cylinder 10. The same driven ring 11 is fixedly connected to the outer side of the stirring cylinder 10. A fourth connecting rod 20 is fixedly connected to the upper side of the rotating ring 13. One end of the fourth connecting rod 20 extends into the moving ring 8, and a semi-tooth ring 14 is fixedly connected to one side of the fourth connecting rod 20 located inside the moving ring 8. A moving frame 21 is slidably connected inside the moving ring 8. A first spring 23 is fixedly connected between the moving frame 21 and the moving ring 8. A third connecting rod 19 is fixedly connected to the side wall of the moving frame 21. A rack 29 is fixedly connected to the outer side of the third connecting rod 19. The rack 29 meshes with the semi-tooth ring 14. A gasket is fixedly installed between the fixed rod 6 and the rotating cylinder 2. A rubber sleeve is fixedly sleeved on the outer side of the moving ring 8.

[0016] The stirring assembly further includes two fixed frames 15 fixedly installed inside the moving ring 8. The same moving rod 16 is slidably connected inside the two fixed frames 15. A driven rod 24 is fixedly connected to the outer side of the moving rod 16. A moving plate 25 is slidably connected to the outer side of the driven rod 24. A baffle 17 is also fixedly connected to the outer side of the driven rod 24. A fixed rod 6 is slidably connected inside the rotating cylinder 2. A plurality of fixed rings 7 are evenly and fixedly connected to the outer side of the fixed rod 6. Two second threaded rods 28 are threadedly connected inside the moving ring 8. The same second connecting rod 18 is rotatably connected to the upper sides of the two second threaded rods 28. A first connecting ring 9 is rotatably connected to the outer side of the driven ring 11. The two second threaded rods 28 and the first connecting ring 9 are rotatably connected. A telescopic sleeve 26 is fixedly connected between the moving plate 25 and the moving ring 8, and a second spring 27 is also fixedly connected between the moving plate 25 and the moving ring 8; First, the lower side of the first threaded rod 4 penetrates through the bottom of the rotating cylinder 2. Second, Figure 4Based on the direction of, the fixed rod 6 and the rotating cylinder 2 are connected for left - right sliding, and a fourth threaded rod is rotatably connected to the lower side of the fixed rod 6. The fourth threaded rod passes through the side wall of the rotating cylinder 2 and is threadedly connected to the rotating cylinder 2. When it is necessary to mix the sampling liquid and the stabilizing liquid, rotate the first threaded rod 4. Since the moving ring 8 and the rotating cylinder 2 are connected for up - down sliding, the rotating first threaded rod 4 will drive the entire moving ring 8 to move up or down. That is, when the threaded rod rotates counterclockwise, it will drive the entire moving ring 8 to move up, and when the threaded rod rotates clockwise, it will drive the entire moving ring 8 to move down. During the up - down movement of the moving ring 8, rotate the fourth threaded rod to move the fixed rod 6 relative to the rotating cylinder 2 to the left. The fixed rod 6 drives the fixed ring 7 to move, so that the fixed ring 7 can prevent the baffle 17 from moving up and down. When the baffle 17 abuts against the fixed ring 7, due to the blocking effect of the fixed ring 7, it will cause the baffle 17 to move up or down relative to the moving ring 8. During the upward movement of the moving ring 8, the moving ring 8 drives the baffle 17 to move up. When the baffle 17 abuts against the fixed ring 7, due to the blocking effect of the fixed ring 7, it will cause the baffle 17 to stop following the moving ring 8 and move, and then cause the baffle 17, the moving rod 16 and the driven rod 24 as a whole to move downward relative to the moving ring 8. At this time, under the limiting effect of the fixed frame 15, it will cause the moving rod 16 to move along the contour track of the fixed frame 15. The moving rod 16 drives the driven rod 24 to move downward, so as to Figure 8 Based on the direction of, the driven rod 24 drives the moving plate 25 to move downward, which in turn causes the moving plate to stretch the upper second spring 27 and compress the lower second spring 27. The driven rod 24 enters the moving frame 21. Refer to the attached Figure 9 , when the downward movement track of the moving rod 16 is to first move vertically downward and then move to the lower left side, the driven rod 24 will drive the moving frame 21 to move to the left. While the moving frame 21 compresses the first spring 23, it drives the rack 29 to move to the left through the third connecting rod 19. The rack 29 drives the meshing semi - tooth ring 14 to rotate counterclockwise. The semi - tooth ring 14 drives the rotating ring 13 to rotate counterclockwise through the fourth connecting rod 20. The rotating ring 13 drives the stirring cylinder 10 and the driven ring 11 as a whole to rotate counterclockwise. Since during this process, the baffle 17 and the moving rod 16 are fixedly connected, the baffle 17 also first moves vertically downward and then moves to the lower left side. When moving to the lower left side, the baffle 17 and the fixed ring 7 are gradually disconnected. When the baffle 17 and the fixed ring 7 are disconnected, under the action of the first spring 23 and the second spring 27, the rotating ring 13 as a whole returns to its original position relative to the moving ring 8. Then, during the upward movement of the moving ring 8, the rotating ring 13 and the stirring cylinder 10 as a whole rotate back and forth, forming a stirring operation on the liquid inside the rotating cylinder 2 and accelerating the mixing efficiency; When the moving ring 8 moves downward, the moving ring 8 drives the baffle 17 to move downward. When the baffle 17 abuts against the fixed ring 7, due to the obstruction of the fixed ring 7, the baffle 17 will stop following the moving ring 8, and then the baffle 17, the moving rod 16 and the driven rod 24 as a whole will move upward relative to the moving ring 8. At this time, under the restriction of the fixed frame 15, the moving rod 16 will move upward along the fixed frame 15, and the moving rod 16 drives the driven rod 24 to move upward. Based on the Figure 8 direction, the driven rod 24 drives the moving plate 25 to move upward, which in turn causes the moving plate 25 to stretch the second spring 27 below and compress the second spring 27 above. During the upward movement of the driven rod 24, the driven rod 24 abuts against the second connecting rod 18 and drives the second connecting rod 18 as a whole to move upward. The second connecting rod 18 drives the second threaded rod 28 as a whole to move upward. Since the second threaded rod 28 is threadedly connected to the moving ring 8 and there is no self-locking phenomenon between the second threaded rod 28 and the moving ring 8 (i.e., the thread lead angle is greater than the equivalent friction angle), the rotating second threaded rod 28 drives the first connecting ring 9 to move upward, and the first connecting ring 9 drives the mixing drum 10 to move upward. The mixing drum 10 compresses the third spring 30. Since during this process, the baffle 17 first moves vertically upward and then moves to the upper left side. When moving to the upper left side, the baffle 17 and the fixed ring 7 are gradually disconnected. When the baffle 17 and the fixed ring 7 are disconnected, under the action of the third spring 30 and the second spring 27, the rotating ring 13 as a whole returns to its original position relative to the moving ring 8. Then, during the upward movement of the moving ring 8, the first connecting ring 9 and the mixing drum 10 as a whole move up and down back and forth, forming a stirring operation on the liquid inside the rotating cylinder 2 and accelerating the mixing efficiency.

[0017] As Figure 11 , a cleaning component for cleaning the rotor 3 is installed inside the rotating cylinder 2. The cleaning component includes a plurality of third threaded rods 32 rotatably installed on the lower side of the rotating ring 13. The plurality of third threaded rods 32 threadedly penetrate through the driven ring 11. A first gear 33 is slidably connected inside the driven ring 11 for each third threaded rod 32. A plurality of fifth connecting rods 34 are rotatably connected inside the driven ring 11. A second gear 35 is fixedly connected to the outer side of each fifth connecting rod 34. The second gear 35 meshes with the first gear 33. A ratchet 36 is also fixedly connected to the outer side of each fifth connecting rod 34. A plurality of sixth connecting rods 37 are slidably connected inside the driven ring 11. A connecting plate 38 is fixedly connected to the outer side of each sixth connecting rod 37. A fifth spring 39 is fixedly connected between the connecting plate 38 and the driven ring 11. A seventh connecting rod 31 is slidably connected to the outer side of the connecting plate 38. A fourth spring is fixedly connected between the seventh connecting rod 31 and the connecting plate 38. A triangular plate 22 is also slidably connected to the outer side of the sixth connecting rod 37. A sixth spring is fixedly connected between the sixth connecting rod 37 and the triangular plate 22; First of all, the cleaning component is divided into multiple groups.Figure 11 It is a connection schematic diagram of a set of cleaning components. Each set of cleaning components includes a third threaded rod 32, a first gear 33, a second gear 35, a fifth connecting rod 34, a ratchet 36, a sixth connecting rod 37, and a triangular plate 22. Moreover, an inclined groove is provided at the upper end of the triangular plate 22. Therefore, when multiple triangular plates 22 are spliced together, an inclined groove that can be squeezed by the rotor 3 will be formed. First, when the fixed rod 6 and the fixed ring 7 are located on the left side inside the rotating cylinder 2, that is, when the fixed ring 7 can obstruct the baffle 17, during the upward movement of the moving ring 8, since the driven rod 24 fixedly connected to the baffle 17 will not abut against the second connecting rod 18, therefore, no relative displacement will occur between the rotating ring 13 and the driven ring 11, and thus the triangular plate 22 will not move. At the beginning, the rotor 3 is not located between the triangular plates 22. The triangular plates 22 are located below the rotor 3, and the triangular plates 22 abut against each other to form a simple sealing state. When the rotor 3 moves to the outside of the triangular plate 22, although the rotor 3 is not a conventional straight rod shape, that is, the rotor 3 is composed of multiple round rods with different diameters, and the multiple round rods are in a concentric state. When the rotor 3 is located directly above the triangular plate 22, the rotor 3 extends into the inclined groove on the upper side of the triangular plate 22, and the rotor 3 abuts against the inner wall of the inclined groove, which will cause the triangular plate 22 to be squeezed. The triangular plate 22 will move away from the center of the circle. Moreover, the joints between different round rods are smooth rounded corners, so jamming will not occur. At the same time, during this process, the sixth spring is always in a compressed state, and the triangular plate 22 always abuts against the side wall of the rotor 3, forming a scraping effect on the side wall of the rotor 3, so that the liquid remaining on the outside of the rotor 3 is discharged; During the downward movement of the moving ring 8, it will cause the driven ring 11 to move up and down relative to the rotating ring 13. Since the third threaded rod 32 is threadedly connected to the driven ring 11, the third threaded rod 32 will rotate relative to the driven ring 11. The third threaded rod 32 drives the first gear 33 to rotate. The first gear 33 drives the second gear 35 and the fifth connecting rod 34 as a whole to rotate. The fifth connecting rod 34 drives the ratchet 36 to rotate. When the ratchet 36 rotates clockwise, the ratchet 36 will drive the seventh connecting rod 31 and the connecting plate 38 as a whole to move to the right. The connecting plate 38 drives the triangular plate 22 to move through the sixth connecting rod 37 and the sixth spring. Since all the triangular plates 22 are centrosymmetric, all the triangular plates 22 will move away from the center. When the ratchet 36 rotates counterclockwise, the ratchet 36 loses control of the seventh connecting plate 38 and the connecting plate 38 as a whole, and then the triangular plate 22 as a whole moves towards the center. During the movement of the triangular plate 22, when the rotor 3 is located between the triangular plates 22, the reciprocating triangular plate 22 will collide with the rotor 3, and then the liquid on the outside of the rotor 3 can be shaken off quickly, thereby improving the cleaning effect of the liquid on the outside of the rotor 3; When the fixed rod 6 and the fixed ring 7 are located on the right side inside the rotating cylinder 2, that is, when the fixed ring 7 does not obstruct the baffle 17, during the up and down movement of the moving ring 8, the triangular plates 22 abut against each other, forming a sealed state. During the up and down movement of the triangular plates 22 and the moving ring 8, the use area of the driven ring 11 is expanded, and the liquid inside the rotating cylinder 2 can be squeezed. After opening the discharge pipe 5 at the lower side of the rotating cylinder 2, it can assist in discharging the liquid inside the rotating cylinder 2; After the liquid inside the rotating cylinder 2 is discharged, close the discharge pipe 5, pour cleaning liquid into the rotating cylinder 2, and move the fixed rod 6 to the left. Continue to rotate the first threaded rod 4 to make the whole device repeat the same operation as above, and start the cleaning operation inside the rotating cylinder 2. During the cleaning process, the triangular plates 22 can clean the surface of the rotor 3, and the moving ring 8 can clean the inside of the rotating cylinder 2. There is no need for disassembly work, and the cleaning effect is good.

[0018] An alumina polishing liquid production detection process includes the following steps: S1. Sample preparation: First, multiple groups of alumina polishing liquid samples to be detected need to be prepared. The sampling of the samples should be representative to ensure that it can reflect the overall production quality; S2. Viscosity detection: In the viscosity detection link, a rotational viscometer is used to measure the viscosity of the polishing liquid; S3. Data recording and analysis: During the detection process, the viscosity data, including the viscosity value and the change trend information, are recorded in detail. By comparing the viscosity data of polishing liquids in different batches or with different formulations, their differences and change rules are analyzed to optimize the production process; S4. Adjust the production process: According to the viscosity detection results, the production process is adjusted. If the viscosity does not meet the requirements, the viscosity performance can be improved by adjusting the raw material ratio, stirring time, and temperature parameters. For example, increasing or decreasing the dosage of the suspending agent and dispersing agent, and adjusting the stirring speed and time; S5. Repeat detection: After the production process is adjusted, the viscosity detection is carried out again to ensure that the viscosity of the produced polishing liquid meets the requirements. Repeat this process until the ideal viscosity range is reached.

[0019] Working principle: When it is necessary to perform a viscosity detection operation on the alumina polishing liquid, pour the sampling liquid of the alumina polishing liquid into the rotating cylinder 2, and pour an appropriate amount of stabilizing liquid for corresponding mixing to make the liquid inside the rotating cylinder 2 within a suitable temperature range. Select a suitable rotor 3, install the rotor 3 on the lower side of the main body 1, and install the rotating cylinder 2 in the lower clamping plate of the main body 1 through bolts. Adjust the rotation speed of the rotating cylinder 2 through the button, start the main body 1, and the main body 1 drives the rotating cylinder 2 to rotate to start the viscosity detection. Then read the data displayed on the display screen, record and analyze it. The above are all prior arts and will not be elaborated further; When it is necessary to perform a mixing operation on the sampling liquid and the stabilizing liquid, rotate the first threaded rod 4. Since the moving ring 8 is slidably connected to the rotating cylinder 2 up and down, the rotating first threaded rod 4 will drive the entire moving ring 8 to move up or down. That is, when the threaded rod rotates counterclockwise, it will drive the entire moving ring 8 to move up, and when the threaded rod rotates clockwise, it will drive the entire moving ring 8 to move down. During the up and down movement of the moving ring 8, rotate the fourth threaded rod to make the fixed rod 6 move leftward relative to the rotating cylinder 2. The fixed rod 6 drives the fixed ring 7 to move, so that the fixed ring 7 can prevent the baffle 17 from moving up and down. When the baffle 17 abuts against the fixed ring 7, due to the blocking effect of the fixed ring 7, it will cause the baffle 17 to move up or down relative to the moving ring 8. During the upward movement of the moving ring 8, the moving ring 8 drives the baffle 17 to move upward. When the baffle 17 abuts against the fixed ring 7, due to the blocking effect of the fixed ring 7, it will cause the baffle 17 to stop following the moving ring 8 and move, and then cause the baffle 17, the moving rod 16 and the driven rod 24 to move downward relative to the moving ring 8 as a whole. At this time, under the limiting effect of the fixed frame 15, it will cause the moving rod 16 to move along the contour track of the fixed frame 15. The moving rod 16 drives the driven rod 24 to move downward. Based on the direction of Figure 8 , the driven rod 24 drives the moving plate 25 to move downward, which in turn causes the moving plate to stretch the upper second spring 27 and compress the lower second spring 27. The driven rod 24 enters the moving frame 21. Refer to the attached Figure 9, when the moving track of the moving rod 16 is to first move vertically downward and then move to the lower left side. Therefore, the driven rod 24 will drive the moving frame 21 to move to the left. While the moving frame 21 compresses the first spring 23, it drives the rack 29 to move to the left through the third connecting rod 19. The rack 29 drives the engaged semi-tooth ring 14 to rotate counterclockwise. The semi-tooth ring 14 drives the rotating ring 13 to rotate counterclockwise through the fourth connecting rod 20. The rotating ring 13 drives the mixing drum 10 and the driven ring 11 as a whole to rotate counterclockwise. Since during this process, the baffle 17 is fixedly connected to the moving rod 16, the baffle 17 also first moves vertically downward and then moves to the lower left side. When moving to the lower left side, the baffle 17 and the fixed ring 7 are gradually disconnected. When the baffle 17 and the fixed ring 7 are disconnected, under the action of the first spring 23 and the second spring 27, the rotating ring 13 as a whole returns to its original position relative to the moving ring 8. As a result, during the upward movement of the moving ring 8, the rotating ring 13 and the mixing drum 10 as a whole rotate back and forth, forming a stirring operation on the liquid inside the rotating cylinder 2 and accelerating the mixing efficiency; When the moving ring 8 moves downward, the moving ring 8 drives the baffle 17 to move downward. When the baffle 17 abuts against the fixed ring 7, due to the blocking effect of the fixed ring 7, the baffle 17 will stop following the moving ring 8 and move upward. As a result, the baffle 17, the moving rod 16 and the driven rod 24 as a whole move upward relative to the moving ring 8. At this time, under the limiting effect of the fixed frame 15, the moving rod 16 will move upward along the fixed frame 15. The moving rod 16 drives the driven rod 24 to move upward. Based on Figure 8 the direction, the driven rod 24 drives the moving plate 25 to move upward, which causes the moving plate 25 to stretch the second spring 27 below and compress the second spring 27 above. During the upward movement of the driven rod 24, the driven rod 24 abuts against the second connecting rod 18 and drives the second connecting rod 18 as a whole to move upward. The second connecting rod 18 drives the second threaded rod 28 as a whole to move upward. Since the second threaded rod 28 is threadedly connected to the moving ring 8 and there is no self-locking phenomenon between the second threaded rod 28 and the moving ring 8 (i.e., the lead angle is greater than the equivalent friction angle), the rotating second threaded rod 28 drives the first connecting ring 9 to move upward. The first connecting ring 9 drives the mixing drum 10 to move upward. The mixing drum 10 compresses the third spring 30. Since during this process, the baffle 17 first moves vertically upward and then moves to the upper left side. When moving to the upper left side, the baffle 17 and the fixed ring 7 are gradually disconnected. When the baffle 17 and the fixed ring 7 are disconnected, under the action of the third spring 30 and the second spring 27, the rotating ring 13 as a whole returns to its original position relative to the moving ring 8. As a result, during the upward movement of the moving ring 8, the first connecting ring 9 and the mixing drum 10 as a whole move up and down back and forth, forming a stirring operation on the liquid inside the rotating cylinder 2 and accelerating the mixing efficiency; When the fixed rod 6 and the fixed ring 7 are located on the left side inside the rotating cylinder 2, that is, when the fixed ring 7 can block the baffle 17, during the upward movement of the moving ring 8, since the driven rod 24 fixedly connected to the baffle 17 will not abut against the second connecting rod 18, therefore, no relative displacement will occur between the rotating ring 13 and the driven ring 11, so the triangular plate 22 will not move. At the beginning, the rotor 3 is not located between the triangular plates 22, and the triangular plates 22 abut against each other to form a simple sealing state. When the rotor 3 moves to the outside of the triangular plate 22, although the rotor 3 is not a conventional straight rod shape, that is, the rotor 3 is composed of a plurality of round rods with different diameters and the plurality of round rods are in a concentric state. When the rotor 3 is located directly above the triangular plate 22, the rotor 3 extends into the inclined groove on the upper side of the triangular plate 22 and abuts against the inner wall of the inclined groove, which will cause the triangular plate 22 to be squeezed, and the triangular plate 22 will move away from the center of the circle. And the joints between different round rods are smooth rounded corners, so jamming will not occur. At the same time, during this process, the sixth spring is always in a compressed state, and the triangular plate 22 always abuts against the side wall of the rotor 3 to form a scraping effect on the side wall of the rotor 3, so that the liquid remaining on the outside of the rotor 3 is discharged; During the downward movement of the moving ring 8, it will cause the driven ring 11 to move up and down relative to the rotating ring 13. Since the third threaded rod 32 is threadedly connected to the driven ring 11, the third threaded rod 32 will rotate relative to the driven ring 11. The third threaded rod 32 drives the first gear 33 to rotate, the first gear 33 drives the second gear 35 and the fifth connecting rod 34 as a whole to rotate, and the fifth connecting rod 34 drives the ratchet 36 to rotate. When the ratchet 36 rotates clockwise, the ratchet 36 will drive the seventh connecting rod 31 and the connecting plate 38 as a whole to move to the right. The connecting plate 38 drives the triangular plate 22 to move through the sixth connecting rod 37 and the sixth spring. Since all the triangular plates 22 are centrosymmetric, all the triangular plates 22 will move away from the center. When the ratchet 36 rotates counterclockwise, the ratchet 36 loses control of the seventh connecting plate 38 and the connecting plate 38 as a whole, and then the triangular plate 22 as a whole moves towards the center. During the movement of the triangular plate 22, when the rotor 3 is located between the triangular plates 22, the reciprocating triangular plate 22 will collide with the rotor 3, which can quickly shake off the liquid on the outside of the rotor 3, thereby improving the cleaning effect of the liquid on the outside of the rotor 3; When the fixed rod 6 and the fixed ring 7 are located on the right side inside the rotating cylinder 2, that is, when the fixed ring 7 does not block the baffle 17, during the up and down movement of the moving ring 8, the triangular plates 22 abut against each other to form a sealing state. During the up and down movement of the triangular plate 22 and the moving ring 8, the use area of the driven ring 11 is expanded, and the liquid inside the rotating cylinder 2 can be squeezed. After opening the discharge pipe 5 on the lower side of the rotating cylinder 2, it can assist the discharge of the liquid inside the rotating cylinder 2; After the liquid inside the rotating cylinder 2 is discharged, close the discharge pipe 5, pour cleaning liquid into the rotating cylinder 2, and move the fixed rod 6 to the left. Continue to rotate the first threaded rod 4 to make the whole device repeat the same above operation, and start the cleaning operation on the inside of the rotating cylinder 2. During the cleaning process, the triangular plate 22 can form a cleaning effect on the surface of the rotor 3, and the moving ring 8 will form a cleaning effect on the inside of the rotating cylinder 2. There is no need to carry out disassembly work, and the cleaning effect is good.

Claims

1. An alumina polishing liquid production detection device, including a main body (1), characterized in that: The body (1) is installed with a rotating cylinder (2) through a plurality of bolts. A discharge pipe (5) is fixedly installed on the rotating cylinder (2). The body (1) is also threadedly connected with a rotor (3). A stirring assembly is installed in the rotating cylinder (2). The stirring assembly includes a first threaded rod (4) rotatably installed in the rotating cylinder (2). A moving ring (8) is threadedly sleeved on the first threaded rod (4). The moving ring (8) is slidably connected to the rotating cylinder (2) up and down. The moving ring (8) is rotatably connected to a rotating ring (13). A plurality of first connecting rods (12) are fixedly connected to the rotating ring (13). The first connecting rods (12) are slidably connected to a stirring cylinder (10). A third spring (30) is fixedly connected between the first connecting rods (12) and the stirring cylinder (10). The stirring cylinder (10) is fixedly connected to the same driven ring (11). The rotating ring (13) is fixedly connected to a fourth connecting rod (20). One end of the fourth connecting rod (20) extends into the moving ring (8), and a semi-tooth ring (14) is fixedly connected to the end of the fourth connecting rod (20) located in the moving ring (8). A moving frame (21) is slidably connected to the moving ring (8). A first spring (23) is fixedly connected between the moving frame (21) and the moving ring (8). The moving frame (21) is fixedly connected to a third connecting rod (19). The third connecting rod (19) is fixedly connected to a rack (29). The rack (29) is meshed with the semi-tooth ring (14).

2. The production detection equipment for an alumina polishing liquid according to claim 1, wherein: The stirring assembly further includes two fixed frames (15) fixedly installed in the moving ring (8). The same moving rod (16) is slidably connected in the two fixed frames (15). The moving rod (16) is fixedly connected to a driven rod (24). The driven rod (24) is slidably connected to a moving plate (25). The driven rod (24) is also fixedly connected to a baffle (17). A fixed rod (6) is slidably connected to the rotating cylinder (2). A plurality of fixed rings (7) are evenly fixedly connected to the fixed rod (6). Two second threaded rods (28) are threadedly connected in the moving ring (8). The two second threaded rods (28) are rotatably connected to the same second connecting rod (18). The driven ring (11) is rotatably connected to a first connecting ring (9). The two second threaded rods (28) are rotatably connected to the first connecting ring (9).

3. The production inspection equipment for an alumina polishing liquid according to claim 2, characterized in that: A cleaning component for cleaning the rotor (3) is installed inside the rotating cylinder (2). The cleaning component includes a plurality of third threaded rods (32) rotatably installed on the lower side of the rotating ring (13). The plurality of third threaded rods (32) threadedly penetrate through the driven ring (11). A first gear (33) is slidably connected inside the driven ring (11) on each third threaded rod (32). A plurality of fifth connecting rods (34) are rotatably connected inside the driven ring (11). A second gear (35) is fixedly connected to each fifth connecting rod (34). The second gear (35) meshes with the first gear (33). A ratchet (36) is also fixedly connected to each fifth connecting rod (34). A plurality of sixth connecting rods (37) are slidably connected inside the driven ring (11). A connecting plate (38) is fixedly connected to each sixth connecting rod (37). A fifth spring (39) is fixedly connected between the connecting plate (38) and the driven ring (11). A seventh connecting rod (31) is slidably connected to the connecting plate (38). A fourth spring is fixedly connected between the seventh connecting rod (31) and the connecting plate (38). A triangular plate (22) is also slidably connected to the sixth connecting rod (37). A sixth spring is fixedly connected between the sixth connecting rod (37) and the triangular plate (22).

4. The production and detection equipment for an alumina polishing liquid according to claim 3, characterized in that: A telescopic sleeve (26) is fixedly connected between the moving plate (25) and the moving ring (8), and a second spring (27) is also fixedly connected between the moving plate (25) and the moving ring (8).

5. The production detection device for an alumina polishing solution according to claim 4, wherein: A sealing gasket is fixedly installed between the fixed rod (6) and the rotating cylinder (2).

6. The production detection device for alumina polishing liquid according to claim 5, characterized in that: A rubber sleeve is fixedly sleeved on the outer side of the moving ring (8).

7. The production and detection equipment for an alumina polishing liquid according to claim 6, characterized in that: A plurality of balance rotating rods are installed on the outer side of the body (1).

8. A production detection process for the alumina polishing liquid according to claim 7, characterized in that, It includes the following steps: S1. Sample preparation: First, multiple groups of alumina polishing liquid samples to be detected need to be prepared. The sampling of the samples should be representative to ensure that the overall production quality can be reflected. S2. Viscosity detection: In the viscosity detection link, a rotational viscometer is used to measure the viscosity of the polishing liquid. S3. Data recording and analysis: During the detection process, the viscosity data, including the viscosity value and the change trend information, are recorded in detail. By comparing the viscosity data of different batches or different formulations of the polishing liquid, the differences and change rules are analyzed to optimize the production process. S4. Adjust the production process: According to the viscosity detection results, the production process is adjusted. If the viscosity does not meet the requirements, the viscosity performance can be improved by adjusting the raw material ratio, stirring time, and temperature parameters. For example, increase or decrease the dosage of the suspending agent and dispersing agent, and adjust the stirring speed and time. S5. Repeat the detection: After the production process is adjusted, the viscosity detection is carried out again to ensure that the viscosity of the produced polishing liquid meets the requirements. Repeat this process until the ideal viscosity range is reached.

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