Sizing material mixing device for manufacturing artificial board

Abstract

The invention discloses a sizing material mixing device for manufacturing artificial boards, and relates to the technical field of artificial board sizing material mixing equipment.The sizing material mixing device comprises a tank body, a tank top cover is fixedly connected to the top of the tank body, a driving motor is fixedly connected to the center of the top of the tank top cover, and the output end of the driving motor is fixedly connected with a mixing rod; the device further comprises a center gathering composite driving mechanism and a laminar flow breakthrough dynamic strengthening mechanism, through the arrangement of the center gathering composite driving mechanism, the radial pushing plate can continuously reciprocate in the outer layer position of the lower end in the tank body while the mixing rod runs in the tank body, and therefore the laminar flow breakthrough dynamic strengthening effect is achieved. The material at the outer layer at the lower end in the tank body can be radially pushed to the center in the tank body, the accumulation and layering phenomena of the material at the bottom of the tank body can be broken, and the convection motion of the material in the tank body is promoted by the radial pushing effect, so that the mixing effect of the mixing rod on the material is more obvious, and the material layer can be more easily penetrated; therefore, the mixing thoroughness and effect are improved.

Description

Technical Field

[0001] The invention relates to the technical field of glue mixing equipment for artificial boards, and in particular to a glue mixing device for manufacturing artificial boards. Background Art

[0002] In the prior art, artificial boards are boards made of wood or other fiber materials through processing, compression, bonding and other processes. In the manufacturing process of artificial boards, in order to make the originally loose wood fragments, shavings or fibers tightly combined to form a whole, glue is usually added to the artificial boards during manufacturing to produce better quality artificial boards. When producing glue, various glue raw materials usually need to be put into a mixing device in a certain proportion, and the mixing device fully mixes the glue raw materials; However, in the process of mixing the rubber raw materials in the existing artificial board rubber mixing device, due to the insufficient gravity and fluidity of the rubber raw materials themselves, it is easy to form accumulation and stratification at the inner bottom of the mixing device. This accumulation and stratification not only leads to low mixing efficiency, but also seriously affects the uniformity of rubber mixing, making the final quality of artificial board products unstable. The traditional mixing method mainly relies on the rotational motion of the stirring rod, but the stirring rod has a limited range of action at the bottom of the mixing device, and it is difficult to effectively penetrate the accumulated material layer, resulting in unsatisfactory mixing effect, especially for materials with higher viscosity or poorer fluidity. The mixing is more difficult, and the existing mixing equipment often lacks a mechanism to promote convection movement, resulting in insufficient mixing between materials, affecting the thoroughness and effect of mixing.

[0003] In view of this, the present invention proposes a glue mixing device for manufacturing artificial boards to make up for and improve the shortcomings of the prior art. Summary of the invention

[0004] In order to solve the above technical problems, the present invention provides a rubber mixing device for manufacturing artificial boards to solve the corresponding technical problems raised in the above background technology.

[0005] To achieve the above purpose, the technical solution adopted by the present invention is: a rubber mixing device for manufacturing artificial boards, comprising a tank body, a tank cover is fixedly connected to the top of the tank body, a driving motor is fixedly connected to the center of the top of the tank cover, a mixing rod is fixedly connected to the output end of the driving motor, and also comprises: a center gathering composite driving mechanism and a laminar breakthrough dynamic strengthening mechanism, and the center gathering composite driving mechanism and the laminar breakthrough dynamic strengthening mechanism are both arranged in the tank body; The center gathering composite driving mechanism is used to push the material located at the outer layer at the lower end of the tank body radially toward the center of the tank body while the mixing rod is running; The laminar flow breakthrough dynamic strengthening mechanism is used to change the flow pattern of the material in the tank body while the mixing rod is running, so as to break through and strengthen the laminar flow generated by the material.

[0006] Preferably, the center-gathering composite drive mechanism includes a transverse flow-pushing rod which passes through and is fixedly connected to the lower end of the mixing rod, and friction wheels are symmetrically rotatably connected at both ends of the transverse flow-pushing rod. A friction ring is fixedly connected to the bottom wall of the tank body, and the friction ring is transmission-connected to the friction wheel. An L-shaped outer cylinder is fixedly connected to the friction ring in an annular shape and equidistantly passes through it.

[0007] Preferably, the L-shaped outer cylinder is vertically and upwardly penetrated by a first inner rod for sliding connection, a guide downward pressure plate is fixedly connected to the top of the first inner rod, a pressure ball is fixedly connected to the top of the guide downward pressure plate, a first return spring is fixedly connected between the guide downward pressure plate and the L-shaped outer cylinder, and the first return spring is sleeved on the outer surface of the first inner rod.

[0008] Preferably, the end of the L-shaped outer cylinder facing the axis of the mixing rod is slidably connected with the second inner rod, and the end of the second inner rod away from the L-shaped outer cylinder is fixedly connected with a radial push plate, the radial push plate is in contact with the bottom wall of the tank body, and a second return spring is fixedly connected between the radial push plate and the L-shaped outer cylinder, and the second return spring is sleeved on the outer surface of the second inner rod.

[0009] Preferably, sealing rings are fixedly connected between the guide lower pressure plate and the radial push plate and the L-shaped outer cylinder, and the sealing rings are respectively sleeved on the outside of the first return spring and the second return spring.

[0010] Preferably, the laminar breakthrough dynamic enhancement mechanism includes a rotating carrier symmetrically fixedly connected to the outer surface of the mixing rod, the outer surface of the rotating carrier is symmetrically fixedly connected to a driving protrusion, the inner ring wall of the tank body is vertically and symmetrically fixedly connected to a fixing ring, the inner surface of the fixing ring is symmetrically fixedly connected to a T-shaped fixing frame, and a double through groove is opened in the middle of the T-shaped fixing frame.

[0011] Preferably, a U-shaped flow-through plate is slidably connected through the double through-slots in the same vertical direction, and the U-shaped flow-through plates are diagonally distributed with the mixing rod as the axis. A third return spring is fixedly connected between the side of the U-shaped flow-through plate facing the driving protrusion and the inner groove wall of the double through-slot, and the side of the U-shaped flow-through plate away from the driving protrusion is in contact with the groove wall on the other side of the double through-slot.

[0012] Preferably, one end of the U-shaped flow-through plate away from the T-shaped fixing frame is penetrated and fixedly connected with a transverse rod, and two ends of the transverse rod are symmetrically fixedly connected with pushed balls.

[0013] Compared with the prior art, the present invention has the following beneficial effects: (1) By setting up the center-gathering composite drive mechanism and utilizing the downward squeezing of the pressure ball by the friction wheel, the radial pushing plate can continuously reciprocate at the outer layer of the lower end of the tank while the mixing rod is running inside the tank, so that the material at the outer layer of the lower end of the tank can be radially pushed toward the center of the tank, which helps to break the accumulation and stratification of the material at the bottom of the tank, ensuring that the material is more uniform during the mixing process. In addition, this radial pushing action promotes the convection movement of the material in the tank, making the mixing effect of the mixing rod on the material more significant and easier to penetrate the material layer, thereby improving the thoroughness and effect of mixing.

[0014] (2) By setting up the laminar flow breakthrough dynamic strengthening mechanism and utilizing the driving protrusion to rotate the pushed ball, the U-shaped flow plate can be reciprocated left and right at the center of the tank while the mixing rod is running inside the tank, effectively avoiding the formation of laminar flow in the middle of the tank, so that the material forms a more complex and turbulent flow pattern inside the tank. In addition, the movement of the U-shaped flow plate can promote the mutual collision and mixing of the materials, so that the materials can be fully mixed at all positions inside the tank, thereby improving the uniformity of mixing. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 It is a schematic diagram of the overall structure of a preferred embodiment of the present invention; Figure 2 It is a schematic diagram of the internal structure of the tank body shown in the present invention; Figure 3 It is a schematic diagram of the structure of the friction ring connection shown in the present invention; Figure 4 The present invention shows Figure 3 The enlarged structural diagram at A in the middle; Figure 5 This is a schematic diagram of the structure of the L-shaped outer cylinder connection shown in the present invention; Figure 6 It is a schematic diagram of the structure of the connection of the rotating carrier shown in the present invention; Figure 7 The present invention shows Figure 6 Enlarged structural diagram at B in the middle.

[0016] The numbers in the figure are: 1. Tank body; 2. Tank cover; 3. Driving motor; 4. Mixing rod; 5. Center-gathering composite drive mechanism; 501. lateral push rod; 502. friction wheel; 503. friction ring; 504. L-shaped outer cylinder; 505. first inner rod; 506. first return spring; 507. guide lower pressure plate; 508. pressure ball; 509. second inner rod; 510. second return spring; 511. radial push plate; 512. sealing ring; 6. Laminar flow breakthrough dynamic strengthening mechanism; 601. Rotating carrier; 602. Driving convex block; 603. Fixing ring; 604. T-shaped fixing frame; 605. Double through groove; 606. Third return spring; 607. U-shaped flow plate; 608. Transverse rod; 609. Push ball. DETAILED DESCRIPTION

[0017] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0018] Embodiments of the present invention: Please refer to Figures 1 to 7 As shown, a rubber material mixing device for manufacturing artificial boards includes a tank body 1, a tank cover 2 is fixedly connected to the top of the tank body 1, a driving motor 3 is fixedly connected to the center of the top of the tank cover 2, a mixing rod 4 is fixedly connected to the output end of the driving motor 3, and also includes: a center gathering composite driving mechanism 5 and a laminar breakthrough dynamic strengthening mechanism 6, and the center gathering composite driving mechanism 5 and the laminar breakthrough dynamic strengthening mechanism 6 are both arranged in the tank body 1; The center gathering compound driving mechanism 5 is used to push the material located at the outer layer at the lower end of the tank body 1 radially toward the center of the tank body 1 while the mixing rod 4 is running; The laminar flow breakthrough dynamic strengthening mechanism 6 is used to change the flow pattern of the material in the tank body 1 while the mixing rod 4 is running, so as to break through and strengthen the laminar flow generated by the material; The central gathering composite driving mechanism 5 includes a transverse flow-pushing rod 501 which penetrates and is fixedly connected to the lower end of the mixing rod 4, and friction wheels 502 are symmetrically rotatably connected at both ends of the transverse flow-pushing rod 501, and a friction ring 503 is fixedly connected to the inner bottom wall of the tank body 1, and the friction ring 503 is transmission-connected to the friction wheel 502, and an L-shaped outer cylinder 504 is fixedly connected to the friction ring 503 in an annular shape and equidistantly penetrates; The L-shaped outer cylinder 504 is vertically and upwardly penetrated by a first inner rod 505 which is slidably connected thereto. A guide pressing plate 507 is fixedly connected to the top of the first inner rod 505. A pressure ball 508 is fixedly connected to the top of the guide pressing plate 507. A first return spring 506 is fixedly connected between the guide pressing plate 507 and the L-shaped outer cylinder 504, and the first return spring 506 is sleeved on the outer surface of the first inner rod 505. The end of the L-shaped outer cylinder 504 facing the axis of the mixing rod 4 is slidably connected with a second inner rod 509, and the end of the second inner rod 509 away from the L-shaped outer cylinder 504 is fixedly connected with a radial push plate 511, the radial push plate 511 is in contact with the inner bottom wall of the tank body 1, and a second return spring 510 is fixedly connected between the radial push plate 511 and the L-shaped outer cylinder 504, and the second return spring 510 is sleeved on the outer surface of the second inner rod 509; A sealing ring 512 is fixedly connected between the guide pressing plate 507 and the radial pushing plate 511 and the L-shaped outer cylinder 504, and the sealing ring 512 is respectively sleeved on the outside of the first return spring 506 and the second return spring 510.

[0019] The effects achieved by this embodiment are as follows: compared with the prior art, by setting up the center-gathering composite drive mechanism 5 and utilizing the friction wheel 502 to squeeze the pressurized ball 508 downward, the radial pushing plate 511 can continuously reciprocate at the outer layer position at the lower end of the tank body 1 while the mixing rod 4 is running inside the tank body 1, so that the material at the outer layer at the lower end of the tank body 1 can be radially pushed toward the center of the tank body 1, which helps to break the accumulation and stratification of the material at the bottom of the tank body 1, ensuring that the material is more uniform during the mixing process, and this radial pushing action promotes the convection movement of the material in the tank body 1, so that the mixing effect of the mixing rod 4 on the material is more significant, and it is easier to penetrate the material layer, thereby improving the thoroughness and effect of mixing.

[0020] Further examples: Please refer to Figures 1 to 7 As shown, the laminar flow breakthrough dynamic strengthening mechanism 6 includes a rotating carrier 601 symmetrically fixedly connected to the outer surface of the mixing rod 4, the outer surface of the rotating carrier 601 is symmetrically fixedly connected to the driving protrusion 602, the inner ring wall of the tank body 1 is vertically and symmetrically fixedly connected to a fixing ring 603, the inner surface of the fixing ring 603 is symmetrically fixedly connected to a T-shaped fixing frame 604, and the middle part of the T-shaped fixing frame 604 is provided with a double through groove 605; A U-shaped flow-through plate 607 is slidably connected between the same vertical double-through groove 605, and the U-shaped flow-through plates 607 are diagonally distributed with the mixing rod 4 as the axis. A third return spring 606 is fixedly connected between the side of the U-shaped flow-through plate 607 facing the driving protrusion 602 and the inner groove wall of the double-through groove 605, and the side of the U-shaped flow-through plate 607 away from the driving protrusion 602 abuts against the groove wall of the other side of the double-through groove 605; One end of the U-shaped flow-through plate 607 away from the T-shaped fixing frame 604 is penetrated and fixedly connected with a transverse rod 608 , and two ends of the transverse rod 608 are symmetrically fixedly connected with push-receiving balls 609 .

[0021] The effects achieved by this embodiment are as follows: compared with the prior art, by setting up the laminar flow breakthrough dynamic strengthening mechanism 6 and utilizing the driving protrusion 602 to rotate and push the pushed ball 609, the U-shaped flow plate 607 can be reciprocated horizontally left and right at the center of the tank body 1 while the mixing rod 4 is running inside the tank body 1, thereby effectively avoiding the formation of laminar flow of materials in the middle of the tank body 1, so that the materials form a more complex and chaotic flow pattern inside the tank body 1, and the movement of the U-shaped flow plate 607 can promote the mutual collision and mixing of materials, so that the materials can be fully mixed at various positions inside the tank body 1, thereby improving the uniformity of mixing.

[0022] The complete usage steps and working principle of the above embodiment are as follows: The following is a working process of the center-gathering composite drive mechanism 5 for radially pushing the material located at the outer layer at the lower end of the tank body 1 to the center of the tank body 1 while the mixing rod 4 is running: In the process of mixing the rubber material for manufacturing the artificial board inside the tank 1, as shown in FIG. Figure 1 and Figure 2 As shown, by the operation of the driving motor 3, the mixing rod 4 fixed at its output end can be synchronously driven to rotate synchronously with the inside of the tank body 1 to mix the materials inside the tank body 1, as shown in FIG. Figure 3 As shown, since a transverse flow-pushing rod 501 is fixedly provided at the lower end of the mixing rod 4 transversely, and friction wheels 502 are symmetrically provided at both ends of the transverse flow-pushing rod 501 for rotation, when the driving motor 3 is running to drive the mixing rod 4 to rotate inside the tank body 1, the rotational movement of the mixing rod 4 can synchronously drive the transverse flow-pushing rod 501 installed on the mixing rod 4 to rotate at the position of the lower end inside the tank body 1, so as to make further transverse precise breakthroughs on the materials at the lower end of the tank body 1, and promote the mixing of the materials, the friction wheel 502 installed at the end of the transverse flow-pushing rod 501 will synchronously rotate inside the tank body 1 with the mixing rod 4 as the axis, and because a friction ring 503 drivingly connected to the friction wheel 502 is fixedly provided on the inner bottom wall of the tank body 1, and an L-shaped outer cylinder 504 is fixedly provided on the friction ring 503 in an annular shape and equidistantly, as shown in FIG. Figure 4 and Figure 5Described, one end of L-shaped outer cylinder 504 is vertically arranged upward, the other end of L-shaped outer cylinder 504 is horizontally arranged close to mixing rod 4, and the vertically upward end of L-shaped outer cylinder 504 is penetrated and slidably provided with first inner rod 505, and the top of first inner rod 505 is fixedly provided with guide down-pressing plate 507, and guide down-pressing plate 507 is composed of a transverse plate and inclined plates symmetrically arranged on both sides of transverse plate, which are fixedly connected to each other, and the inclined plates are gradually inclined downwardly from the transverse plate with the transverse plate as the highest point, and the design of inclined surface can provide guiding function for friction wheel 502, and because pressure ball 508 is fixedly provided on the top of guide down-pressing plate 507, when transverse flow-pushing rod 501 rotates to drive friction wheel 502 to rotate synchronously with mixing rod 4 as axis, friction wheel 502 will be gradually The friction wheel 502 is gradually connected to the upper surface of the guide down pressure plate 507. Through the continued rotation of the lateral push flow rod 501 and the guidance provided by the guide down pressure plate 507, the friction wheel 502 and the pressure ball 508 are in contact, and under the action of the sliding surface design of the pressure ball 508, the friction wheel 502 gradually moves to the top of the pressure ball 508. Since the first return spring 506 and the sealing ring 512 are respectively arranged between the guide down pressure plate 507 and the L-shaped outer cylinder 504, an elastic basis can be provided for the guide down pressure plate 507. When the friction wheel 502 moves to the upper surface of the pressure ball 508, the first return spring 506 and the sealing ring 512 are synchronously compressed, and the first inner rod 505 will also slide into the inside of the L-shaped outer cylinder 504 through the downward pressure of the guide down pressure plate 507. At this time, due to the L-shaped outer cylinder A second inner rod 509 is slidably provided through one end of 504 toward the mixing rod 4. The second inner rod 509 can be pushed to move in a direction away from the L-shaped outer cylinder 504 (i.e., toward the mixing rod 4) by means of downward squeezing of the first inner rod 505. Since a radial pushing plate 511 is fixedly provided at one end of the second inner rod 509 away from the L-shaped outer cylinder 504, when the second inner rod 509 moves in a direction away from the L-shaped outer cylinder 504, the radial pushing plate 511 will simultaneously move toward the mixing rod 4, so as to gather and push the materials located in the outer layer toward the middle, and a second return spring 510 and a sealing ring 512 are fixedly connected between the radial pushing plate 511 and the L-shaped outer cylinder 504. When the radial pushing plate 511 is synchronously followed by the movement of the second inner rod 509, the second inner rod 509 moves in a direction away from the L-shaped outer cylinder 504. The second return spring 510 and the sealing ring 512 are stretched synchronously, and when the lateral push rod 501 continues to rotate, the friction wheel 502 will gradually move away from the upper surface of the pressure ball 508 under the movement of the lateral push rod 501. At this time, the downward squeezing effect of the first return spring 506 disappears, and the first inner rod 505 is moved away from the L-shaped outer cylinder 504 under the action of the elastic force, and the guide lower pressure plate 507 is simultaneously returned to its original position to facilitate the next passage of the friction wheel 502. While the first inner rod 505 is returning upward, the second inner rod 509 can be synchronously driven to slide into the L-shaped outer cylinder 504. At this time, the second return spring 510 also gradually contracts, and synchronously enables the radial push plate 511 to return to its original position, and so on.The radial pushing plate 511 can be pushed back and forth to continuously push the outer layer of the material at the lower end of the tank body 1 toward the middle, which helps to break the accumulation and stratification of the material at the bottom of the tank body 1, ensuring that the material is more uniform during the mixing process. In addition, this radial pushing action promotes the convection movement of the material in the tank body 1, making the mixing rod 4 more effective in mixing the material and more easily penetrate the material layer, thereby improving the thoroughness and effect of mixing; Please refer to the above working process Figures 1 to 7 .

[0023] The following is a working process of the laminar flow breakthrough dynamic strengthening mechanism 6 for changing the flow pattern of the material in the tank body 1 while the mixing rod 4 is running, so as to break through and strengthen the laminar flow generated by the material: When the mixing rod 4 rotates inside the tank 1 to mix the materials, Figure 2 and Figure 6 As shown, since the outer surface of the mixing rod 4 is vertically symmetrically fixed with a rotating carrier 601, and the outer surface of the rotating carrier 601 is symmetrically fixed with a driving protrusion 602, when the mixing rod 4 rotates, the rotating carrier 601 and the driving protrusion 602 installed thereon can be synchronously driven to rotate synchronously with the mixing rod 4 as the axis. In addition, since the inner ring wall of the tank body 1 is vertically symmetrically fixed with two fixing rings 603, and the inner ring surface of each fixing ring 603 is symmetrically fixed with two T-shaped fixing frames 604, as shown in FIG. Figure 6 and Figure 7 As shown, the T-shaped fixing frame 604 is arranged between the upper and lower rotating carriers 601, and the T-shaped fixing frame 604 is arranged close to the rotating carrier 601, and a double through slot 605 is opened on the T-shaped fixing frame 604 (it should be noted that the double through slot 605 is opened between the side away from the two adjacent T-shaped fixing frames 604 and the side close to the two T-shaped fixing frames 604 in the same vertical direction), and a U-shaped flow-through plate 607 is slidably arranged between the same vertical double through slots 605, and a transverse moving plate 607 is fixedly arranged at the ends away from the two U-shaped flow-through plates 607. Rod 608, and pushed balls 609 are symmetrically arranged at both ends of the transverse rod 608. As the rotating carrier 601 rotates, the driving protrusion 602 will gradually approach the direction of the pushed ball 609, and finally contact the outer surface of the pushed ball 609 to push the pushed ball 609 outward. At this time, since the pushed ball 609 is fixed and restricted on the U-shaped flow-through plate 607 by the transverse rod 608, the rotation of the pushed ball 609 by the driving protrusion 602 will make the transverse rod 608 cooperate with the U-shaped flow-through plate 607 to move horizontally on the T-shaped fixing frame 604 synchronously, as shown in FIG. Figure 6As shown, since the two transverse rods 608 are diagonally distributed with the mixing rod 4 as the center, and the U-shaped flow-through plate 607 is fixedly connected to the groove wall of the double-through groove 605 on one side facing the driving protrusion 602 with the third return spring 606, and the side of the U-shaped flow-through plate 607 away from the driving protrusion 602 (that is, away from the third return spring 606), under the elastic force of the third return spring 606, it will abut against the groove wall on the other side of the double-through groove 605, and the driving protrusion 602 will contact the pushed ball 609 through rotation, which will make the two U-shaped flow-through plates 607 move toward the groove wall on the side connected to the third return spring 606 and squeeze the third return spring 606. As the rotating carrier 601 continues During the rotational movement, the driving protrusion 602 will gradually lose contact with the pushed ball 609. At this time, the thrust on the pushed ball 609 disappears, and the U-shaped flow plate 607 will be driven back to its original position under the elastic force of the third return spring 606. In this way, the U-shaped flow plate 607 can be driven to move back and forth horizontally to break through the laminar flow formed by the material in the middle of the tank body 1, change the flow pattern of the material inside the tank body 1, and form a more complex and turbulent flow pattern of the material inside the tank body 1. The movement of the U-shaped flow plate 607 can promote the mutual collision and mixing of the materials, so that the materials can be fully mixed at various positions inside the tank body 1, thereby improving the uniformity of the mixing. Please refer to the above working process Figures 1 to 7 .

[0024] The circuits and controls involved in the present invention are all prior art and will not be described in detail here.

[0025] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A rubber mixing device for manufacturing artificial boards, comprising a tank body (1), a tank cover (2) fixedly connected to the top of the tank body (1), a driving motor (3) fixedly connected to the center of the top of the tank cover (2), and a mixing rod (4) fixedly connected to the output end of the driving motor (3), characterized in that: It also includes: a center-gathering composite driving mechanism (5) and a laminar flow breakthrough dynamic strengthening mechanism (6), and the center-gathering composite driving mechanism (5) and the laminar flow breakthrough dynamic strengthening mechanism (6) are both arranged in the tank body (1); The central gathering composite driving mechanism (5) is used to radially push the material located at the outer layer at the lower end of the interior of the tank body (1) toward the center of the interior of the tank body (1) while the mixing rod (4) is running; The laminar flow breakthrough dynamic strengthening mechanism (6) is used to change the flow pattern of the material in the tank body (1) while the mixing rod (4) is running, thereby breaking through and strengthening the laminar flow generated by the material.

2. A rubber mixing device for manufacturing artificial boards according to claim 1, characterized in that: The central gathering composite driving mechanism (5) comprises a transverse flow pushing rod (501) penetrating and fixedly connected to the lower end of the mixing rod (4), the two ends of the transverse flow pushing rod (501) are symmetrically rotatably connected to friction wheels (502), the inner bottom wall of the tank body (1) is fixedly connected to a friction ring (503), and the friction ring (503) is drivingly connected to the friction wheel (502), and the friction ring (503) is annularly equidistantly penetrating and fixedly connected to an L-shaped outer cylinder (504).

3. A rubber mixing device for manufacturing artificial boards according to claim 2, characterized in that: The L-shaped outer cylinder (504) is vertically and upwardly penetrated by a first inner rod (505) for sliding connection; a guide downward pressure plate (507) is fixedly connected to the top of the first inner rod (505); a pressure ball (508) is fixedly connected to the top of the guide downward pressure plate (507); a first return spring (506) is fixedly connected between the guide downward pressure plate (507) and the L-shaped outer cylinder (504); and the first return spring (506) is sleeved on the outer surface of the first inner rod (505).

4. A rubber mixing device for manufacturing artificial boards according to claim 3, characterized in that: A second inner rod (509) is slidably connected to one end of the L-shaped outer cylinder (504) facing the axis of the mixing rod (4); a radial push plate (511) is fixedly connected to one end of the second inner rod (509) away from the L-shaped outer cylinder (504); the radial push plate (511) is in contact with the inner bottom wall of the tank body (1); a second return spring (510) is fixedly connected between the radial push plate (511) and the L-shaped outer cylinder (504); and the second return spring (510) is sleeved on the outer surface of the second inner rod (509).

5. A rubber mixing device for manufacturing artificial boards according to claim 4, characterized in that: The guide lower pressure plate (507) and the radial push plate (511) are both fixedly connected to the L-shaped outer cylinder (504) with a sealing ring (512), and the sealing ring (512) is respectively sleeved on the outside of the first return spring (506) and the second return spring (510).

6. A rubber mixing device for manufacturing artificial boards according to claim 1, characterized in that: The laminar breakthrough dynamic strengthening mechanism (6) comprises a rotating carrier (601) symmetrically fixedly connected to the outer surface of the mixing rod (4); the outer surface of the rotating carrier (601) is symmetrically fixedly connected to a driving protrusion (602); the inner ring wall of the tank body (1) is vertically symmetrically fixedly connected to a fixing ring (603); the inner surface of the fixing ring (603) is symmetrically fixedly connected to a T-shaped fixing frame (604); and the middle portion of the T-shaped fixing frame (604) is provided with a double through groove (605).

7. A rubber mixing device for manufacturing artificial boards according to claim 6, characterized in that: A U-shaped flow-through plate (607) is slidably connected through the double through grooves (605) in the same vertical direction, and the U-shaped flow-through plates (607) are diagonally distributed with the mixing rod (4) as the axis. A third return spring (606) is fixedly connected between the side of the U-shaped flow-through plate (607) facing the driving protrusion (602) and the inner groove wall of the double through groove (605), and the side of the U-shaped flow-through plate (607) away from the driving protrusion (602) is in contact with the groove wall of the other side of the double through groove (605).

8. A rubber mixing device for manufacturing artificial boards according to claim 7, characterized in that: One end of the U-shaped flow-through plate (607) away from the T-shaped fixing frame (604) is penetrated and fixedly connected with a transverse rod (608), and two ends of the transverse rod (608) are symmetrically fixedly connected with push-receiving balls (609).

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