Efficient dispersion system for optical lens coating agent

Abstract

According to the efficient dispersion system for the optical lens coating agent, the tank body is divided into the upper part and the lower part through the arranged separation disc, the conical barrel section of the lower part is gradually thinned from top to bottom, and materials at the lower end can be made to move upwards through the first lifting screw, penetrate through the first penetrating hole and then continue to move upwards through lifting of the second lifting screw; therefore, the materials move downwards from the outside and penetrate through the second penetrating holes, then the materials penetrate through the first lifting spirals upwards to form circulation, the materials repeatedly penetrate through the separation discs in the circulation process, the materials can be efficiently dispersed in the process, and therefore the overall consumed time is shortened, and the efficiency is improved. The problem of low overall dispersion efficiency caused by material agglomeration in the prior art is solved.

Description

Technical Field

[0001] The present invention relates to the technical field of optical lens coating agent processing, and in particular to a high-efficiency dispersion system for optical lens coating agents. Background Art

[0002] During the processing of optical lenses, it is often necessary to coat the surface. A coating agent is required for coating. The coating agent includes a variety of solid materials and liquid materials. When used, a dispersion device is required to mix them evenly to ensure the uniformity of the film thickness after coating. In the actual processing process, the stirring equipment used generally includes a tank body and a first mounting shaft arranged in the tank body. A stirring blade is fixedly connected to the outside of the first mounting shaft. A drive motor is arranged outside the tank body to introduce the solid material and the liquid material into the tank body. The drive motor is started to drive the first mounting shaft to rotate, so that the stirring blade mixes the materials (solid material and liquid material) and finally obtains a uniform coating agent. During operation, the solid material may agglomerate at the beginning of stirring. In the subsequent stirring process, it takes longer and greater intensity to completely disperse the solid material (that is, the agglomerated material is fully dispersed and mixed evenly with the liquid material), which leads to lower overall efficiency. Summary of the Invention

[0003] In view of the deficiencies in the prior art, the present invention provides a high-efficiency dispersion system for optical lens coating agents, which solves the problem in the prior art of low overall dispersion efficiency due to material agglomeration.

[0004] According to an embodiment of the present invention, an optical lens coating agent efficient dispersion system includes a tank body, the tank body includes a straight cylinder section and a conical cylinder section located below the straight cylinder section, the lower end of the conical cylinder section is also fixedly connected to a laterally extending discharge pipe, and a pushing screw is coaxially arranged in the discharge pipe; the top of the straight cylinder section is fixedly covered with a cover plate, a first drive motor is installed on the cover plate, a first mounting shaft is provided in the tank body for self-rotation, the first mounting shaft rotates upward and passes through the cover plate to be connected to the rotating shaft of the first drive motor, the first mounting shaft is also fixedly connected to the first lifting screw located in the conical cylinder section, and a first lifting screw extending from the conical cylinder section to the straight cylinder section is provided. The second lifting spiral of the cylinder section, a separating plate is also provided in the tank body and is located between the first lifting spiral and the second lifting spiral, the outer edge of the separating plate is fixedly connected to the inner wall of the conical cylinder section, a first mounting sleeve is fixedly provided at the center, and the first mounting shaft rotates through the first mounting sleeve, the separating plate includes an upper convex section surrounding the outside of the first mounting sleeve and a lower concave section surrounding the outside of the upper convex section, and a plurality of first through-holes and a plurality of second through-holes are respectively provided on the upper convex section and the lower concave section; a feed hopper is also fixedly connected to the straight cylinder section, and a liquid inlet pipe is also fixedly connected to the cover plate, and the feed hopper and the liquid inlet pipe are respectively connected to the straight cylinder section. The set separation plate divides the tank body into upper and lower parts. The conical section in the lower part gradually becomes thinner from top to bottom, and the material at the lower end can be lifted upward by the first lifting spiral, and then continues to move upward after passing through the first perforation by the second lifting spiral, so that the material moves downward on the outside and passes through the second perforation, and then moves upward through the first lifting spiral, forming a cycle. During the cycle, the material repeatedly passes through the separation plate, and the material can be efficiently dispersed in the process, thereby shortening the overall time and improving efficiency, solving the problem of low overall dispersion efficiency due to material agglomeration in the existing technology.

[0005] Furthermore, a pump body is provided between the straight cylinder section and the conical cylinder section so that the material is lifted from the lower end of the conical cylinder section to the upper end of the straight cylinder section.

[0006] Furthermore, a transition ring is provided between the upper convex section and the lower concave section.

[0007] Furthermore, a first rotating cylinder surrounding the first lifting spiral is fixedly connected to the first installation shaft, and a plurality of third through holes are formed on the first rotating cylinder.

[0008] Furthermore, the first mounting shaft is fixedly connected to a second rotating cylinder surrounding the second lifting screw, and the second rotating cylinder is fixedly surrounded by a pressing screw.

[0009] Furthermore, the pressing spiral covers the transition ring and part of the concave section in the vertical direction.

[0010] Furthermore, a flaring cylinder is fixedly connected to the upper end of the first rotating cylinder, and the flaring cylinder covers the transition ring and part of the upper convex section in the vertical direction.

[0011] Furthermore, a plurality of first stirring rods and a plurality of second stirring rods are fixedly connected to the outside of the first rotating cylinder. The first stirring rods have ends that are bent upward, and the second stirring rods have ends that are bent downward.

[0012] Furthermore, a transition tube is fixedly connected between the conical tube section and the discharge pipe. The first installation shaft extends into the transition tube and is fixedly surrounded by a third lifting spiral extending from the transition tube to the conical tube section.

[0013] Furthermore, one end of the discharge pipe is away from the transition cylinder and is provided with a valve, and the pushing screw includes a second mounting shaft, which rotates and extends to the outside of the end of the discharge pipe away from the valve and is connected to a second drive motor that drives its rotation. A rotating sleeve that is fixedly mounted outside the second mounting shaft is also rotatably provided in the discharge pipe, and the rotating sleeve is arranged close to the valve. The rotating sleeve is in sliding contact with the discharge pipe and a number of notches are recessed on its outer wall.

[0014] Compared with the prior art, the present invention has the following beneficial effects:

[0015] A separation plate is provided in the tank body to separate it into an upper and lower part, and the material at the lower end is moved upward in the middle position and passes through the first perforation through the first lifting screw and the second lifting screw respectively, and then moves downward from the top through the periphery and passes through the second perforation, forming a cycle. During the cycle, the material repeatedly passes through the separation plate, and the material can be efficiently dispersed in the process, thereby shortening the overall time consumption and improving efficiency, solving the problem of low overall dispersion efficiency due to material agglomeration in the prior art. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 The overall structure of the embodiment of the present invention is shown in FIG. Figure 1 ;

[0017] Figure 2 The overall structure of the embodiment of the present invention is shown in FIG. Figure 2 ;

[0018] Figure 3 for Figure 2 A magnified schematic diagram of the local structure at center A;

[0019] Figure 4 for Figure 2 A magnified diagram of the local structure at point B Figure 1 (One embodiment);

[0020] Figure 5 for Figure 2 A magnified diagram of the local structure at point B Figure 2 (Another embodiment);

[0021] Figure 6 for Figure 2 A magnified schematic diagram of the local structure at point C in the middle;

[0022] Figure 7 is a schematic cross-sectional view of a connecting rod according to an embodiment of the present invention;

[0023] Figure 8 A schematic structural diagram of a rotating sleeve according to an embodiment of the present invention;

[0024] In the above drawings:

[0025] Tank body 1, straight cylinder section 2, conical cylinder section 3, cover plate 4, first drive motor 5, liquid inlet pipe 6, feed hopper 7, discharge pipe 8, pushing screw 9, second drive motor 10, first mounting shaft 11, first lifting screw 12, second lifting screw 13, separating plate 14, first mounting sleeve 15, pump body 16, pump inlet pipe 17, pump outlet pipe 18, annular shell 19, communicating hole 20, first rotating cylinder 21, second rotating cylinder 22, connecting rod 23, first stirring rod 24, second stirring rod 25, expanding cylinder 26, pressing down screw 27, transition cylinder 28, third lifting screw 29, valve 30, second mounting shaft 31, rotating sleeve 32, notch 33, third stirring rod 34, stirring plate 35, conveying pipe 36, third drive motor 37, annular cavity 38. DETAILED DESCRIPTION

[0026] The technical solution of the present invention is further described below with reference to the accompanying drawings and embodiments.

[0027] In the description of the present invention, it should be understood that the terms "center", "longitudinal", "lateral", "length", "width", "thickness", "up", "down", "front", "back", "left", "right", "vertical", "horizontal", "top", "bottom", "inside", "outside", "clockwise", "counterclockwise", "axial", "radial", "circumferential" and the like to indicate orientations or positional relationships based on the orientations or positional relationships shown in the accompanying drawings, and are only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore should not be understood as limiting the present invention.

[0028] In an exemplary embodiment, Figure 1 、 2As shown, this embodiment provides an efficient dispersion system for an optical lens coating agent, which includes a tank body 1. The tank body 1 includes a straight section 2 and a conical section 3 located below the straight section 2. The top of the straight section 2 is also fixedly covered with a cover plate 4. The cover plate 4 is provided with a first drive motor 5 and a liquid inlet pipe 6 connected to the straight section 2. The upper end of the straight section 2 is also fixedly connected to a feed hopper 7 connected to the interior thereof. The liquid inlet pipe 6 is for introducing liquid materials, and the feed hopper 7 is for introducing solid materials. The lower end of the conical section 3 is also fixedly connected to a laterally extending discharge pipe 8. A pushing screw 9 is coaxially arranged in the discharge pipe 8, and a second drive motor 10 is also provided on the outside to drive the pushing screw 9 to rotate. After the material dispersion is completed, the second drive motor 10 is started to push the pushing screw 9 through the feed hopper 7. 9 discharges the material through the discharge pipe 8; further, a first mounting shaft 11 is also provided in the tank body 1 to rotate, and the first mounting shaft 11 rotates upward and passes through the cover plate 4 to be connected to the rotating shaft of the first drive motor 5, and the first mounting shaft 11 is driven to rotate by the first drive motor 5. A first lifting screw 12 located in the conical cylinder section 3 and a second lifting screw 13 extending from the conical cylinder section 3 to the straight cylinder section 2 are also fixedly connected to the first mounting shaft 11, that is, the second lifting screw 13 is located above the first lifting screw 12. When the first drive motor 5 runs in the forward direction, the first lifting screw 12 and the second lifting screw 13 can drive the material to move upward, and when the first drive motor 5 runs in the reverse direction, the first lifting screw 12 and the second lifting screw 13 make the material move downward The first and second lifting screws 13 are connected to each other, and the first and second lifting screws 13 are connected to each other, so that the material at the bottom of the tank 1 can be lifted up and moved. The material moves downward on the outside and passes through the second perforation, and then moves upward through the first lifting screw 12 to form a circulation. During the circulation process, the material repeatedly passes through the separating disk 14, and the material can be efficiently dispersed in the process, thereby shortening the overall time consumption and improving efficiency, solving the problem of low overall dispersion efficiency due to material agglomeration in the prior art; in a further solution, a pump body 16 is also provided outside the tank body 1, and the pump inlet pipe 17 of the pump body 16 is connected to the lower end of the conical cylinder section 3, and the pump outlet pipe 18 is connected to the cover plate 4. When the pump body 16 is running, the material at the lower end of the conical cylinder section 3 can be pumped upward to the upper end of the straight cylinder section 2, thus forming a material circulation between the inside and outside of the tank body 1, and cooperating with the circulation in the tank body 1, the dispersion efficiency can be further improved;In particular, the connection point between the pump inlet pipe 17 and the conical cylinder section 3 is located below the first lifting screw 12. In this way, the suction force of the pump body 16 can be used to assist the material in moving downward, and then the material is divided into the central position for upward lifting and the peripheral position for being sucked into the pump body 16 and then lifted upward, with the two cycles being carried out simultaneously. In a further solution, an annular shell 19 can be fixedly arranged around the conical cylinder section 3. The annular shell 19 and the conical cylinder section 3 form an annular cavity 38, and a plurality of equidistantly surrounding communicating holes 20 are further provided between the conical cylinder section 3 and the annular cavity 38. The pump inlet pipe 17 of the pump body 16 is connected to the annular cavity 38. In this way, when the pump body 16 is in operation, the material first passes through the communicating holes 20 into the annular cavity 38, and then enters the pump inlet pipe 17. In the process of passing through the communicating holes 20, the material can be sheared again and enter in different directions on the periphery, which can further improve the dispersion efficiency.

[0029] In the detailed plan, Figure 1-6As shown, the upper convex section is an upward convex arc-shaped ring structure, and the lower concave section is a downward convex arc-shaped ring structure. A transition ring is further provided between the upper convex section and the lower concave section. No first perforation and second perforation are provided on the transition ring. The transition ring smoothly transitions between the first perforation and the second perforation. When the material moves downward, the inner material may contact the upper wall surface of the transition ring, thereby smoothly moving toward the outer second perforation under the oblique outward guidance of the transition ring. When the material moves upward, the outer material may contact the lower wall surface of the transition ring, thereby smoothly moving toward the inner first perforation under the oblique inward guidance of the transition ring. The materials will approach each other in the process of moving toward the outside / inward, thereby increasing the pressure of them passing through the first perforation / second perforation, so that the dispersion efficiency is further improved. In a further solution, a first rotating cylinder 21 and a second rotating cylinder 22 are respectively provided below and above the transition ring. The first rotating cylinder 21 surrounds the outside of the first lifting screw 12 and is fixedly connected to the first installation shaft 11 through a connecting rod 23. The second rotating cylinder 22 surrounds the outside of the second lifting screw 13 and is fixedly connected to the first installation shaft 11 through a connecting rod 23. In this way, a material movement channel is forcibly formed in the middle position of the tank body 1. When the first lifting screw 12 and the second lifting screw 13 are in operation, the material enters the lower movement channel (i.e., the first rotating cylinder 21), passes through the first perforation, and then enters the upper movement channel (i.e., the second rotating cylinder 22). This can further improve the circulation efficiency and thus improve the dispersion efficiency. In more detail, the connecting rods 23 provided in the first rotating drum 21 and the second rotating drum 22 are multiple and staggered with the corresponding first lifting screw 12 and the second lifting screw 13. In addition to the connection function of the connecting rods 23, the materials can also be further forced to shear in cooperation with the corresponding first lifting screw 12 and the second lifting screw 13 during operation (i.e., they are sheared by the connecting rods 23 during the rising process), thereby further improving the dispersion efficiency. In a further detailed solution, the connecting rods 23 provided can have a downward pointed structure in cross section, similar to a knife blade, so that the materials can be forced to shear with higher intensity during the rising process. In a further solution, several connecting rods 23 are also provided on the wall of the first rotating drum 21. The third perforations are used during the operation of the first lifting screw 12 to allow the peripheral materials to pass into the first rotating cylinder 21. In particular, the first rotating cylinder 21 is arranged in the middle and upper position of the conical cylinder section 3. This section is also the initial section where the materials gradually become crowded during the downward process. The third perforations can be set to be smaller than the second perforations, so that some smaller particles of materials will be forced to squeeze into the third perforations, while larger particles will continue to flow downward to the pump body 16 and be pulled into the first rotating cylinder 21 by the first lifting screw 12. In particular, during the operation of the first lifting screw 12 in the first rotating cylinder 21, the materials can be pulled inward through the third perforations, so that the materials are forcibly torn during the process of passing through the third perforations, thereby achieving better dispersion efficiency.Furthermore, a plurality of first stirring rods 24 and a plurality of second stirring rods 25 are fixedly connected to the outer wall of the first rotating cylinder 21. The first stirring rod 24 has an upwardly curved end, and the second stirring rod 25 has a downwardly curved end. When the first mounting shaft 11 runs in the forward direction, the first rotating cylinder 21 and the first stirring rod 24 and the second stirring rod 25 will all rotate, so that the material is further sheared; in a further solution, a flaring cylinder 26 is also fixedly connected to the upper end of the first rotating cylinder 21. The flaring cylinder 26 covers the transition ring and part of the upper convex section in the vertical direction. After the material passes through the first rotating cylinder 21, it enters the flaring cylinder 26 and spreads outward. Then the material on the outside contacts the transition ring and moves obliquely upward and inward, so that the material becomes more chaotic before passing through the first perforation. (i.e., forced remixing) to improve the dispersion efficiency of the material. In particular, the aperture of the first perforation can be smaller than that of the second perforation, and comparable to or slightly smaller than that of the third perforation. This allows the material to be subjected to a stronger shearing force during its upward movement than during its downward movement, ultimately improving the dispersion efficiency during the continuous circulation process. In a further embodiment, the second rotating drum 22 also rotates with the first mounting shaft 11. A downward pressure screw 27 is fixedly mounted on the outer wall of the second rotating drum 22. This assists the material in its downward movement, ensuring a smoother downward movement. Furthermore, the downward pressure screw 27 vertically covers the transition ring and a portion of the concave section, thereby staggering the upwardly moving material and avoiding obstruction of its normal upward movement.

[0030] like Figure 1-8As shown, a transition cylinder 28 is fixedly connected to the lower end of the conical cylinder section 3, and the transition cylinder 28 extends downward and is also connected to the discharge pipe 8, that is, a transition cylinder 28 is provided between the discharge pipe 8 and the conical cylinder section 3, and the material passes through the transition cylinder 28 into the discharge pipe 8 when being discharged. Furthermore, the lower end of the first installation shaft 11 is extended into the transition cylinder 28, and the outside of the first installation shaft 11 is also fixedly surrounded by a third lifting screw 29 extending from the transition cylinder 28 to the conical cylinder section 3, that is, the third lifting screw 29 is also provided below the first lifting screw 12, and when the first installation shaft 11 runs forward, the first lifting screw 12, the second lifting screw 13 and the third lifting screw 29 all lift the material upward , the setting of the third lifting screw 29 can also prevent the material from moving downward during the dispersion process (that is, the outer edge of the third lifting screw 29 can slide with the inner wall of the transition cylinder 28 to prevent the material from passing downward into the discharge pipe 8); and when the material needs to be discharged, the first lifting screw 12, the second lifting screw 13 and the third lifting screw 29 all push the material downward to assist the material to enter the discharge pipe 8 smoothly. It should be noted that although the downward pressure screw 27 set in this scheme will make some materials move upward during discharge, it mainly exists in the straight cylinder section 2. During the process, the upper layer of materials are stirred, which will not affect the downward movement of the lower layer of materials. As the materials are discharged, the entire material falls downward, which will be combined with the downward pressure screw 27. The spirals 27 are separated, and the discharge of the material will not be affected during the entire process; in a further solution, one end of the discharge pipe 8 is away from the transition cylinder 28 and is provided with a valve 30, and the pushing screw 9 includes a second mounting shaft 31, that is, the pushing screw 9 is fixedly wrapped around the outside of the second mounting shaft 31, and the second mounting shaft 31 rotates and extends to the outside of the end of the discharge pipe 8 away from the valve 30 and is connected to the rotating shaft of the second drive motor 10. When the second drive motor 10 is running, it can drive the pushing screw 9 to run, so that the material moves toward the valve 30. When discharging is in progress, the valve 30 needs to be opened first, and then the second drive motor 10 is started and the first drive motor 5 is stopped and then the first drive motor is started in reverse. 5, so that the material can be smoothly discharged; in a further detailed scheme, a rotating sleeve 32 fixedly sleeved on the outside of the second mounting shaft 31 is also rotatably provided in the discharge pipe 8, and the rotating sleeve 32 is arranged close to the valve 30, and the rotating sleeve 32 is in sliding contact with the discharge pipe 8 and a plurality of notches 33 are recessed on its outer wall. The notches 33 are channels through which the material needs to pass before entering the valve 30. At the same time, the rotating sleeve 32 is provided at the other end of the second drive motor 10 to provide a rotating support base for the second mounting shaft 31 (the rotating sleeve 32 can also be fixedly connected to the discharge pipe 8, and the rotating sleeve 32 is arranged outside the second mounting shaft 31), thereby ensuring the smooth operation of the push screw 9;In a further embodiment, a second mounting sleeve is fixedly connected to the first mounting shaft 11, located between the first lifting screw 12 and the third lifting screw 29. A third stirring rod 34 is also fixedly connected to the second mounting sleeve. The third stirring rod 34 rotates with the first mounting shaft 11 and can further assist in shearing the material at the lower end of the conical cylinder section 3. Furthermore, a stirring plate 35 can be fixedly connected to the end of the third stirring rod 34, close to and separated from the inner wall of the conical cylinder section 3, to achieve more intense stirring of the material.

[0031] During the operation of this scheme, solid materials and liquid materials are introduced into the tank body 1 through the feed hopper 7 and the liquid inlet pipe 6 respectively. The feed hopper 7 can also be connected to the delivery pipe 36, which extends horizontally into the straight cylinder section 2. A delivery screw can also be provided in the delivery pipe 36 to improve the feeding efficiency of the solid material (and a third drive motor 37 for driving the delivery screw is provided externally). Before the material is introduced into the tank body 1, the first drive motor 5 starts to run in the forward direction (or starts to run in the forward direction at the same time). When the material is introduced, the liquid level in the tank body 1 can reach a position close to the lower end of the second rotating cylinder 22, or a small amount of the second rotating cylinder 22 is covered. At the upper end of the cylinder 22, the pump body 16 is turned on (the pump body 16 can also be turned on when the liquid level exceeds the separating disk 14) so ​​that internal and external circulation is also performed during the feeding process, and finally the efficient dispersion of the material is achieved with the cooperation of the two cycles. After the dispersion is completed, the pump body 16 is stopped, the first drive motor 5 is stopped and then the first drive motor 5 is reversed, and the valve 30 is opened and the second drive motor 10 is run at the same time, and the material begins to be discharged (the first drive motor 5 can also be not run during discharge. During the operation of the second drive motor 10, the material can enter the discharge pipe 8 through the spiral gap between the third lifting screw 29 and the transition cylinder 28 and be discharged smoothly).

[0032] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention and are not limiting. Although the present invention has been described in detail with reference to the preferred embodiments, those skilled in the art should understand that the technical solutions of the present invention may be modified or replaced by equivalents without departing from the purpose and scope of the technical solutions of the present invention, which should all be included in the scope of the claims of the present invention.

Claims

1. An efficient dispersion system for optical lens coating agents, characterized in that: The tank body comprises a straight section and a conical section located below the straight section, the lower end of the conical section is also fixedly connected to a laterally extending discharge pipe, and a pushing screw is coaxially arranged in the discharge pipe; the top of the straight section is fixedly covered with a cover plate, a first drive motor is installed on the cover plate, a first mounting shaft is provided in the tank body for self-rotation, the first mounting shaft rotates upward and passes through the cover plate to be connected with the rotating shaft of the first drive motor, the first mounting shaft is also fixedly connected to a first lifting screw located in the conical section, and a second lifting screw extending from the conical section to the straight section, A separating plate is also provided between the first lifting spiral and the second lifting spiral. The outer edge of the separating plate is fixedly connected to the inner wall of the conical cylinder section, a first mounting sleeve is fixedly provided at the center, and the first mounting shaft rotates through the first mounting sleeve. The separating plate includes an upper convex section surrounding the outside of the first mounting sleeve and a lower concave section surrounding the outside of the upper convex section. A plurality of first through-holes and a plurality of second through-holes are respectively provided on the upper convex section and the lower concave section; a feed hopper is also fixedly connected to the straight cylinder section, and a liquid inlet pipe is also fixedly connected to the cover plate. The feed hopper and the liquid inlet pipe are respectively connected to the straight cylinder section.

2. The efficient dispersion system for optical lens coating agent according to claim 1, characterized in that: A pump body is also provided between the straight cylinder section and the conical cylinder section so that the material is lifted from the lower end of the conical cylinder section to the upper end of the straight cylinder section.

3. The efficient dispersion system for optical lens coating agent according to claim 1, characterized in that: A transition ring is provided between the upper convex section and the lower concave section.

4. The efficient dispersion system for optical lens coating agent according to claim 3, characterized in that: The first installation shaft is also fixedly connected to a first rotating cylinder surrounding the first lifting spiral, and the first rotating cylinder is also provided with a plurality of third through holes.

5. The efficient dispersion system for optical lens coating agent according to claim 3, characterized in that: The first mounting shaft is also fixedly connected to a second rotating cylinder surrounding the second lifting spiral, and the second rotating cylinder is also fixedly surrounded by a pressing spiral.

6. The efficient dispersion system for optical lens coating agent according to claim 5, characterized in that: The downward pressing spiral covers the transition ring and part of the concave section in the vertical direction.

7. The efficient dispersion system for optical lens coating agent according to claim 4, characterized in that: The upper end of the first rotating cylinder is also fixedly connected to a flaring cylinder, which covers the transition ring and part of the upper convex section in the vertical direction.

8. The efficient dispersion system for optical lens coating agent according to claim 7, characterized in that: A plurality of first stirring rods and a plurality of second stirring rods are fixedly connected to the outside of the first rotating cylinder. The first stirring rods have ends that are bent upward, and the second stirring rods have ends that are bent downward.

9. The efficient dispersion system for optical lens coating agent according to any one of claims 1 to 8, characterized in that: A transition cylinder is fixedly connected between the conical cylinder section and the discharge pipe. The first installation shaft extends into the transition cylinder and is fixedly surrounded by a third lifting spiral extending from the transition cylinder to the conical cylinder section.

10. The efficient dispersion system for optical lens coating agent according to claim 9, characterized in that: One end of the discharge pipe is away from the transition cylinder and is provided with a valve. The pushing screw includes a second mounting shaft. The second mounting shaft rotates and extends to the outside of the end of the discharge pipe away from the valve and is connected to a second drive motor that drives its rotation. A rotating sleeve that is fixedly mounted outside the second mounting shaft is also rotatably provided in the discharge pipe, and the rotating sleeve is arranged close to the valve. The rotating sleeve is in sliding contact with the discharge pipe and a number of notches are recessed on its outer wall.

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