A dual-rotor continuous internal mixer for antistatic masterbatch

Abstract

This invention discloses a dual-rotor continuous internal mixer for antistatic masterbatch, belonging to the field of internal mixers. It includes a mixing table with a mixing component on the mixing table, and the mixing component has a frame connected to the mixing table. The dual-rotor continuous internal mixer for antistatic masterbatch of this invention can simultaneously drive the drum and stirring blades to rotate during the process of closing the gap of the mixing component by lowering the cover plate, so as to perform a secondary mixing operation on the three mixtures placed in the feeding box. During the process of closing the gap of the mixing component by lowering the cover plate, the material in each layer of the conical hopper can simultaneously flow downwards, enabling the mixture from the third layer to flow into the mixture from the second layer, the mixture from the second layer to flow into the first layer, and the mixture from the first layer to flow into the feeding box, thereby realizing the feeding and mixing of the mixtures.

Description

Technical Field

[0001] This invention belongs to the field of internal mixers, specifically relating to a dual-rotor continuous internal mixer for antistatic masterbatch. Background Technology

[0002] In existing technologies, color masterbatch is a new type of special colorant for polymer materials, also known as pigment preparation. A closed-type rubber mixing mill, or internal mixer for short, is mainly used for the plasticizing and mixing of rubber. An internal mixer is a machine equipped with a pair of rotors of specific shapes that rotate relative to each other, intermittently plasticizing and mixing polymer materials under adjustable temperature and pressure in a closed environment. When feeding materials into an internal mixer, it is often necessary to first separate several mixtures before placing them into the feeding hopper. How to perform premixing operations during internal mixing without adding additional stirring drive has become a pressing technical problem to be solved.

[0003] The present invention seeks to mitigate or at least alleviate such problems or defects by providing new or otherwise improved internal mixers. Summary of the Invention

[0004] In view of one or more of the above-mentioned defects or improvement needs of the prior art, the present invention provides an antistatic masterbatch dual-rotor continuous internal mixer, which has the advantage of performing premixing without adding additional stirring drive during internal mixing.

[0005] To achieve the above objectives, the present invention provides a dual-rotor continuous internal mixer for antistatic masterbatch, comprising a mixing table, a mixing component on the mixing table, a frame connected to the mixing table, a mixing chamber and a drive motor on the frame, two sets of drive rods arranged in the mixing chamber, the drive motor connected to the drive rods, a rotor for material to pass through on each set of drive rods, and a meshing wheel at the tail of each set of drive rods, and further comprising:

[0006] A capping member is used to seal the mixing component. It is arranged on the mixing table. When the output end of the capping member moves down, it can seal the mixing component.

[0007] A feeding box is arranged on the mixing table. A support frame is provided on the feeding box. A material box is provided on the support frame. A hose is also provided on one side of the material box. A screw conveyor pump is provided on one side of the hose. A hose is also provided on one side of the feeding box. A screw conveyor pump is provided on one side of the hose.

[0008] An adaptive linkage component, disposed within the feeding hopper, is triggered when the capping component moves downward. The adaptive linkage component includes: a linkage plate with a through rod, a spring sleeved on the through rod, and a top plate on the through rod, the through rod passing through the capping component; a trigger rod located at the bottom of the top plate, with two sets of ball bearings at its tail; a collar frame disposed within the feeding hopper, with a rotating cylinder rotatably disposed within the collar frame, and a spiral groove within the rotating cylinder allowing the ball bearings to pass through; a bottom rod located at the tail of the rotating cylinder, with a stirring blade disposed on the bottom rod; and...

[0009] A feeding component is arranged inside the feeding box, and the feeding component is connected to the adaptive linkage component. When the adaptive linkage component is activated, it can drive the feeding component to gradually puncture the material box so as to mix the material in the material box into the feeding box.

[0010] As a further improvement of the present invention, the drive motor is adapted to the drive rod through a worm gear reducer, and the two sets of meshing wheels mesh with each other.

[0011] As a further improvement of the present invention, the bottom of the mixing chamber is further provided with a feeding cylinder and a feeding sealing plate, wherein when the output end of the feeding cylinder outputs, it can drive the feeding sealing plate to rotate so as to discharge the material in the mixing chamber.

[0012] As a further improvement of the present invention, the gland member includes:

[0013] A capping frame is arranged on the mixing table, and an electric cylinder is provided on the capping frame;

[0014] A pressure plate is disposed at the output end of the electric cylinder, and a connecting plate is provided on the pressure plate;

[0015] Cover plate, which is disposed on the connecting plate; and

[0016] A slide bar is located on the pressure plate and can pass through the capping frame.

[0017] As a further improvement of the present invention, the material box is composed of three layers of sub-material boxes, each of which has a conical hopper and an aluminum foil sealing film.

[0018] As a further improvement of the present invention, the adaptive linkage component further includes a drive wheel located above the stirring blade, and a belt is removably sleeved on the drive wheel.

[0019] As a further improvement of the present invention, an annular protrusion is integrally formed on the rotating drum, and the annular protrusion can be inserted into a groove of the rotating drum.

[0020] As a further improvement of the present invention, the feeding component includes:

[0021] A substrate is arranged on the inner wall of the feeding box, and a slide bar is provided on the substrate, and a spike is slidably arranged in the slide bar.

[0022] A column, located on the base plate, has a hanging spring on the column;

[0023] A side bar is provided on the spike bar, and the side bar is connected to one end of the hanging spring;

[0024] A linkage rod is provided on the side rod;

[0025] A support rod, rotatably mounted inside the feeding hopper, has a drive wheel on it; and

[0026] The slope column wheel is arranged on the support rod, and the slope column wheel overlaps with the tail end of the linkage rod.

[0027] As a further improvement of the present invention, the sloping column wheel has a first slope, a first transition plane, a second slope, a second transition plane, a third slope, and a descending slope. The first slope, the first transition plane, the second slope, the second transition plane, the third slope, and the descending slope are sequentially connected to each other. A first gap is formed between the first slope and the descending slope, a second gap is formed between the first transition plane and the second slope, and a third gap is formed between the second transition plane and the third slope.

[0028] As a further improvement of the present invention, a flexible spike is integrally formed at the top of the spike rod.

[0029] In summary, the beneficial effects of the above-described technical solutions conceived by this invention compared with the prior art include:

[0030] 1. The antistatic masterbatch dual-rotor continuous internal mixer of the present invention can simultaneously drive the drum and stirring blades to rotate during the process of closing the gap of the internal mixing components by moving the cover plate down, so as to perform secondary mixing of the three kinds of compound materials placed in the feeding box.

[0031] 2. The antistatic masterbatch dual-rotor continuous internal mixer of the present invention can simultaneously realize that the material in the conical hopper of each layer flows downward during the process of closing the gap of the internal mixing components by moving the cover plate down. It can realize that the mixture of the third layer flows into the mixture of the second layer, the mixture of the second layer flows into the first layer, and the mixture of the first layer flows into the feeding box, which can quickly perform premixing operations on several mixtures.

[0032] 3. The antistatic masterbatch dual-rotor continuous internal mixer of the present invention can drive the two flexible side plates of the spike to tear the third layer of aluminum foil sealing film to both sides after the spike returns through the rebound force of the hanging spring, and then tear the second layer and the first layer of aluminum foil sealing film in sequence.

[0033] IV. The antistatic masterbatch dual-rotor continuous internal mixer of the present invention can utilize the upward movement force of the mixture within the internal mixing component during the internal mixing process to achieve continuous rotation and mixing of three different mixtures in the feeding box.

[0034] V. The antistatic masterbatch dual-rotor continuous internal mixer of the present invention can utilize the upward movement force of the mixed material in the internal mixing component during the mixing process, so that after the linkage plate moves up, the linkage rod can only move upward and downward on the descending slope, which can vibrate the material in the material box and fully improve the material box discharge rate. Attached Figure Description

[0035] Figure 1 This is a schematic diagram of the overall structure of the antistatic masterbatch dual-rotor continuous internal mixer of the present invention;

[0036] Figure 2 This is a schematic diagram of the structure of the antistatic masterbatch twin-rotor continuous internal mixer from another perspective.

[0037] Figure 3 This is a schematic diagram of the structure of the mixing component and the capping component of the present invention when they are combined.

[0038] Figure 4 This is a schematic diagram of the overall structure of the mixing component of the present invention;

[0039] Figure 5 This is a schematic diagram of the overall structure of the pressure cap component of the present invention;

[0040] Figure 6 This is a schematic diagram of the overall structure of the adaptive linkage component of the present invention;

[0041] Figure 7 This is an exploded view of the adaptive linkage component of the present invention;

[0042] Figure 8 This is a schematic diagram of the structure when the trigger rod and the rotating cylinder of the present invention are separated;

[0043] Figure 9 This is a schematic diagram of the overall structure of the material supply component of the present invention;

[0044] Figure 10 This is an exploded view of the feeding component of the present invention;

[0045] Figure 11 From another perspective, this invention Figure 10 A schematic diagram of the structure at that time.

[0046] In all the accompanying drawings, the same reference numerals denote the same technical features, specifically:

[0047] 1. Secret refining platform;

[0048] 2. Mixing components; 21. Frame; 22. Mixing chamber; 23. Drive rod; 24. Rotor; 25. Engaging gear; 26. Drive motor;

[0049] 3. Capping component; 31. Capping machine frame; 32. Electric cylinder; 33. Pressure plate; 34. Cover plate; 35. Connecting plate; 36. Slide rod;

[0050] 4. Feeding box; 41. Support frame; 42. Material box;

[0051] 5. Adaptive linkage components; 51. Linkage plate; 52. Through rod; 53. Spring; 54. Top plate; 55. Trigger rod; 551. Ball bearing; 56. Ring frame; 561. Rotary drum; 562. Ring protrusion; 563. Spiral groove; 57. Bottom rod; 58. Stirring blade; 59. Drive wheel one; 591. Belt;

[0052] 6. Feeding components; 61. Base plate; 62. Slide frame; 63. Spike bar; 64. Column; 65. Hanging spring; 66. Side bar; 67. Linkage rod; 68. Sloping column wheel; 69. Support rod; 691. Drive wheel two. Detailed Implementation

[0053] 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.

[0054] The terminology used herein is for the purpose of describing particular embodiments only and is not intended to limit the invention. The terms “comprising,” “including,” etc., as used herein indicate the presence of the stated features, steps, operations, and / or components, but do not exclude the presence or addition of one or more other features, steps, operations, or components.

[0055] All terms used herein (including technical and scientific terms) have the meanings commonly understood by those skilled in the art, unless otherwise defined. It should be noted that the terms used herein are to be interpreted in a manner consistent with the context of this specification, and not in an idealized or overly rigid way.

[0056] In Example 1, by Figure 1-11Provided is a dual-rotor continuous internal mixer for antistatic masterbatch, comprising a mixing table 1, a mixing component 2 on the mixing table 1, a frame 21 connected to the mixing table 1, a mixing chamber 22 and a drive motor 26 on the frame 21, two sets of drive rods 23 arranged in the mixing chamber 22, the drive motor 26 connected to the drive rods 23, a rotor 24 for material to pass through on each set of drive rods 23, and a meshing wheel 25 at the tail of each set of drive rods 23; further comprising: a sealing capping component 3 for sealing the mixing component 2, arranged on the mixing table 1, which can seal the mixing component 2 when its output end moves down; and a feeding box 4 arranged on the mixing table 1, with a support frame on the feeding box 4. 41. A material box 42 is provided on the support frame 41. A hose is also provided on one side of the material box 4, and a screw conveyor pump is provided on one side of the hose. An adaptive linkage component 5 is arranged inside the material box 4. The adaptive linkage component 5 can be triggered and started when the pressure cover component 3 moves downward. The adaptive linkage component 5 includes: a linkage plate 51 with a through rod 52, a spring 53 sleeved on the through rod 52, and a top plate 54 on the through rod 52. The through rod 52 can pass through the pressure cover component 3. A trigger rod 55 is arranged at the bottom of the top plate 54, and two sets of ball bearings 551 are provided at the tail of the trigger rod 55. A collar frame 56 is arranged inside the material box 4. A rotating drum 561 is rotatably arranged inside the collar frame 56. The drum 561 has a spiral groove 563 through which the ball bearing 551 passes; a bottom rod 57 located at the tail of the drum 561, on which a stirring blade 58 is mounted; and a feeding component 6 located inside the feeding box 4, which is connected to the adaptive linkage component 5. When the adaptive linkage component 5 is activated, it drives the feeding component 6 to gradually puncture the material box 42, thereby mixing the material in the material box 42 into the feeding box 4. The capping component 3 includes: a capping frame 31 located on the mixing table 1, on which an electric cylinder 32 is mounted; a pressure plate 33 located at the output end of the electric cylinder 32, on which a connecting plate 35 is mounted; and a cover plate 34 located on the connecting plate. The feeding component 6 includes: a base plate 61, which is arranged on the inner wall of the feeding box 4, a slide bar frame 62 on the base plate 61, and a spike 63 slidably arranged in the slide bar frame 62; a column 64, which is located on the base plate 61, and a hanging spring 65 on the column 64; a side rod 66, which is arranged on the spike 63, and one end of the side rod 66 is connected to the hanging spring 65; a linkage rod 67, which is arranged on the side rod 66; a support rod 69, which is rotatably arranged in the feeding box 4, and a drive wheel 691 on the support rod 69; and a slope column wheel 68, which is arranged on the support rod 69, and the slope column wheel 68 overlaps with the tail end of the linkage rod 67.

[0057] Next, the working principle of the antistatic masterbatch twin-rotor continuous internal mixer will be explained in detail: By activating the electric cylinder 32, the cover plate 34 can be quickly pushed down. After the cover plate 34 is engaged in the mixing chamber 22, it can seal the rotor 24. After the output end of the electric cylinder 32 and the cover plate 34 descend, the trigger rod 55 can be driven down. After the trigger rod 55 descends, it can drive the ball bearings 551 to move gradually from the upper end to the lower end along the groove direction of the spiral groove 563, and drive the rotating drum 561 to rotate. During the process of closing the gap of the mixing component 2 by the downward movement of the cover plate 34, the rotating drum 561 and the stirring blades are simultaneously driven. Rotation 58 allows for secondary mixing of the three types of compound materials placed in the feed box 4. This enables secondary strengthening after the initial feeding and mixing by the feeding component 6. During the mixing process of the three types of compound materials, the two sets of drive rods 23 can compress the common material of the three types of compound materials, causing it to move upward along the direction of the rotor 24. Simultaneously, the compression linkage plate 51 moves upward and the spring 53 is compressed. During the upward movement of the linkage plate 51, the trigger rod 55 is lifted upward. After the common material of the three types of compound materials moves downward along the direction of the rotor 24, the linkage plate 51 can move downward, at which point the trigger rod 55 is moved downward.As the trigger rod 55 moves upward and downward, it synchronously drives the rotating drum 561 and the stirring blade 58 to rotate. When the output end of the electric cylinder 32 and the cover plate 34 descend, they can drive the adaptive linkage component 5 to operate. After the drive wheel 1 59 rotates, it drives the drive wheel 2 691 to rotate. Firstly, when the slope column wheel 68 moves from the first notch toward the first slope and the first transition plane, it can drive the spike rod 63 to pierce the aluminum foil sealing film in the first layer of the sub-material box. Secondly, the slope column wheel 68 moves from... When the second notch moves toward the second slope and the second transition plane, it can drive the spike 63 to pierce the aluminum foil sealing film in the sub-material box of the second layer. Thirdly, when the slope roller 68 moves from the third notch toward the third slope and the descending slope, the spike 63 can first pierce the aluminum foil sealing film in the sub-material box of the third layer, and can quickly retract through the hanging spring 65 to return to the initial position. After the spike 63 returns to the initial position, the material in the conical hopper of each layer will flow downwards, realizing the third layer The mixed material flows into the second layer of mixed material, the second layer of mixed material flows into the first layer, and the first layer of mixed material flows into the feeding box 4 to achieve feeding and mixing of the mixed material; secondly, in the third stage of the movement of the spike rod 63, after the spike rod 63 moves from the third slope to the descending slope, because the flexible spikes on the spike rod 63 initially penetrate the openings of the aluminum foil sealing film of the first, second, and third layers in a small manner, and at this time the two flexible side plates of the spike rod 63 are resting on the aluminum foil sealing film of the third layer, therefore, in the spike rod 6 3. When the spring 65 returns to its original position, it can drive the two flexible side plates of the spike rod 63 to tear the third layer of aluminum foil sealing film to both sides, and then tear the second and first layers of aluminum foil sealing film in sequence. The mixture in the feeding box 4 is injected into the mixing chamber 22 by the screw conveyor pump. After the mixture is injected into the mixing chamber 22, the drive motor 26 can be turned on to drive the drive rod 23 and the rotor 24 to rotate, so as to continuously mix the mixture located in the two sets of rotors 24.

[0058] It should also be noted that the screw conveyor pump is a known component in the prior art, so it will not be described in detail in this embodiment.

[0059] The adaptive linkage component 5 has the following effects: on the one hand, it can utilize the upward movement force of the mixture in the mixing component 2 during the mixing process to continuously rotate and mix the three different mixtures in the feeding box 4; on the other hand, it can enable the linkage rod 67 to move only upward and downward on the descending slope after the linkage plate 51 moves upward, which can vibrate the material in the material box 42 and fully improve the feeding rate of the material box 42.

[0060] Example 2: A dual-rotor continuous internal mixer for antistatic masterbatch includes the structure in Example 1. In order to facilitate the smooth rotation of the drive rod 23 by the drive motor 26, the drive motor 26 is connected to the drive rod 23 through a worm gear reducer, and the two sets of meshing wheels 25 mesh with each other.

[0061] Example 3: A dual-rotor continuous internal mixer for antistatic masterbatch includes the structure in Example 2. More specifically, in order to facilitate the rapid release of material in the mixing chamber 22, the bottom of the mixing chamber 22 is also equipped with a feeding cylinder and a feeding sealing plate. When the feeding cylinder outputs, it can drive the feeding sealing plate to rotate so that the material in the mixing chamber 22 flows out.

[0062] Example 4: A dual-rotor continuous internal mixer for antistatic masterbatch, comprising the structure of Example 3. More specifically, the material box 42 is composed of three sub-material boxes, each sub-material box having a conical hopper and an aluminum foil sealing film.

[0063] Example 5: A dual-rotor continuous internal mixer for antistatic masterbatch includes the structure in Example 4. In order to enable the adaptive linkage component 5 to synchronously drive the feeding component 6 during the movement, the adaptive linkage component 5 also includes a drive wheel 59 located above the stirring blade 58, and a belt 591 is removably sleeved on the drive wheel 59.

[0064] Example 6: A dual-rotor continuous internal mixer for antistatic masterbatch includes the structure in Example 5. In order to facilitate the stable rotation of the drum 561 within the ring frame 56, an annular protrusion 562 is integrally formed on the drum 561, and the annular protrusion 562 can penetrate into the groove of the drum 561.

[0065] Example 7: A dual-rotor continuous internal mixer for antistatic masterbatch, comprising the structure of Example 6, and more specifically, having a first slope, a first transition plane, a second slope, a second transition plane, a third slope, and a descending slope on the slope roller 68. The first slope, the first transition plane, the second slope, the second transition plane, the third slope, and the descending slope are sequentially connected to each other. A first gap is formed between the first slope and the descending slope, a second gap is formed between the first transition plane and the second slope, and a third gap is formed between the second transition plane and the third slope.

[0066] Example 8: A dual-rotor continuous internal mixer for antistatic masterbatch includes the structure in Example 7. After completing one round of internal mixing, the first, second, and third layers of mixed materials can be fed into the internal mixing component 2 for continuous mixing through the hose and screw conveyor connected to the side of the material box 42.

[0067] Example 9: A dual-rotor continuous internal mixer for antistatic masterbatch, comprising the structure of Example 8. More specifically, in order to further improve the piercing effect of the barb 63, a flexible spike end is integrally formed at the top of the barb 63.

[0068] In summary, the specific effects brought about by the deployment of adaptive linkage component 5 and material feeding component 6 are as follows:

[0069] 1. During the process of closing the gap of the mixing component 2 by lowering the cover plate 34, the rotating drum 561 and the stirring blade 58 are simultaneously driven to rotate, so as to carry out a secondary mixing operation on the three kinds of compound materials placed in the feeding box 4.

[0070] Second, during the process of closing the gap of the mixing component 2 by moving the cover plate 34 down, the material in the conical hopper of each layer will flow downward simultaneously, so that the mixture of the third layer can flow into the mixture of the second layer, the mixture of the second layer can flow into the first layer, and the mixture of the first layer can flow into the feeding box 4, so as to realize the feeding and mixing of the mixture.

[0071] Third, after the spike rod 63 returns to its original position due to the rebound force of the hanging spring 65, it can drive the two flexible side plates of the spike rod 63 to tear the third layer of aluminum foil sealing film to both sides, and then tear the second layer and the first layer of aluminum foil sealing film in sequence.

[0072] Fourth, it can utilize the upward movement force of the mixture within the mixing component 2 during the mixing process to achieve continuous rotation and mixing of the three different mixtures in the feeding box 4.

[0073] Fifth, by utilizing the upward movement force of the compound within the mixing component 2 during the mixing process, the linkage rod 67 can move only upward and downward on the descending slope after the linkage plate 51 moves upward, which can vibrate the material in the material box 42 and fully improve the material discharge rate of the material box 42.

[0074] 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 dual-rotor continuous internal mixer for antistatic masterbatch, comprising a mixing table, a mixing component on the mixing table, a frame connected to the mixing table, a mixing chamber and a drive motor on the frame, two sets of drive rods arranged in the mixing chamber, the drive motor connected to the drive rods, a rotor mounted on each set of drive rods, and a meshing wheel at the tail of each set of drive rods, characterized in that... It also includes: A cover member for closing the mixing member, which is arranged on the mixing table, and the output end of the cover member can close the mixing member when it moves downward; A feeding box arranged on the mixing table, which has a supporting frame, a material box on the supporting frame, a hose on one side of the feeding box, and a screw conveyor pump on one side of the hose; An adaptive linkage member arranged in the feeding box, which can be triggered and started when the cover member moves downward, and the adaptive linkage member includes: a linkage plate with a rod passing through it, a spring sleeved on the rod, and a top plate on the rod; a trigger rod arranged at the bottom of the top plate, with two groups of balls at the tail of the trigger rod; a sleeve ring frame arranged in the feeding box, with a rotating drum rotatably arranged in the sleeve ring frame, a spiral groove in the rotating drum, and the spiral groove allowing the balls to pass through; a bottom rod arranged at the tail of the rotating drum, with a stirring blade arranged on the bottom rod; and A feeding member arranged in the feeding box and connected with the adaptive linkage member, which can drive the feeding member to gradually pierce the material box to mix the material in the material box in the feeding box when the adaptive linkage member is started; The feeding member includes: A base plate arranged on the inner wall of the feeding box, with a slide rod frame on the base plate, a piercing rod slidingly arranged in the slide rod frame; A stand arranged on the base plate, with a hanging spring on the stand; A side rod arranged on the piercing rod and connected with one end of the hanging spring; A linkage rod arranged on the side rod; A support rod rotatably arranged in the feeding box, with a drive wheel two on the support rod; and A slope column wheel arranged on the support rod and engaged with the tail end of the linkage rod.

2. The anti-static color masterbatch two-roll continuous mixer of claim 1, wherein, The drive motor is connected with the drive rod through a turbine reducer, and the two groups of meshing wheels are meshed with each other.

3. The anti-static color masterbatch two-roll continuous mixer of claim 2, wherein, The bottom of the mixing chamber also has a discharging cylinder and a discharging cover plate, wherein the discharging cover plate can be driven to rotate to discharge the material in the mixing chamber when the output end of the discharging cylinder outputs.

4. The anti-static color masterbatch two-roll continuous mixer of claim 3, wherein, The cover member includes: A cover frame arranged on the mixing table, with an electric cylinder on the cover frame; A pressing plate arranged on the output end of the electric cylinder, with a connecting plate on the pressing plate; A cover plate arranged on the connecting plate; and A slide rod arranged on the pressing plate and passing through the cover frame.

5. The anti-static color masterbatch two-roll continuous mixer of claim 4, wherein, The material box is composed of three layers of sub-material boxes, each group of sub-material boxes has a conical hopper, and each group of sub-material boxes has an aluminum foil sealing film.

6. The anti-static color masterbatch two-roll continuous mixer of claim 5, wherein, The adaptive linkage member also includes a drive wheel one above the stirring blade, and a belt is removably sleeved on the drive wheel one.

7. The anti-static color masterbatch two-roll continuous mixer of claim 6, wherein, A ring protrusion is integrally formed on the rotating drum and can be inserted into a groove of the sleeve frame.

8. The anti-static color masterbatch two-roll continuous mixer of claim 7, wherein, The slope column wheel has a first slope, a first transition plane, a second slope, a second transition plane, a third slope, and a descending slope, which are sequentially connected to each other, forming a first gap between the first slope and the descending slope, a second gap between the first transition plane and the second slope, and a third gap between the second transition plane and the third slope.

9. The anti-static color masterbatch two-roll continuous mixer of claim 8, wherein, A flexible sharp end is integrally formed on the top end of the spike rod.

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