Environment-friendly latex paint and processing technology thereof
The latex paint processing device, with its multi-layered mixing structure and crushing cone design, solves the problems of insufficient mixing and uneven dispersion of particulate materials in traditional latex paint mixing equipment. It achieves efficient mixing and refinement of latex paint, thereby improving product quality and production efficiency.
Patent Information
- Application Number
- CN202511639655.8
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-11-11
- Publication Date
- 2026-01-23
AI Technical Summary
Traditional latex paint mixing equipment suffers from insufficient mixing and uneven dispersion of particulate materials, especially when containing easily settling particles, resulting in uneven mixing and affecting the fineness and functional effects of the product.
An environmentally friendly latex paint processing device is adopted. Through the design of a multi-level stirring structure and crushing cone, combined with rotation and vibration, it achieves comprehensive and uniform stirring and crushing of particles. This includes the spiral stirring trajectory, the relative movement of the crushing cone and the cone platform, and the vibration of the striking rod, ensuring efficient crushing and dispersion of particles.
It achieves efficient mixing and refinement of latex paint, improves the uniformity of product texture and functional effects, simplifies equipment structure, and increases production efficiency.
Smart Images
Figure CN121372155A_ABST
Abstract
Description
Technical Field
[0001] This invention belongs to the field of latex paint processing technology, and in particular relates to an environmentally friendly latex paint and its processing technology. Background Technology
[0002] Latex paint, a type of water-based coating based on synthetic resin emulsions, is widely used in interior and exterior wall decoration due to its advantages such as ease of application, rapid drying, and good water and scrub resistance. With increasing environmental awareness, the market demand for environmentally friendly latex paints is rising, requiring not only low levels of harmful substances but also additional functions such as antibacterial and air-purifying properties. However, traditional latex paint production still faces technical challenges such as insufficient mixing and uneven dispersion of particulate materials, affecting the final product's fineness, stability, and functional effects.
[0003] Existing latex paint mixing equipment mostly adopts a single stirring structure, such as a stirring paddle or stirring rod, to achieve initial mixing of raw materials through rotation. Although some equipment adds heating pipes to promote material fusion or uses vibration motors to enhance fluid turbulence, these designs still have obvious limitations: First, the flow direction of the liquid during the stirring process is relatively unidirectional, which easily forms a stirring dead zone, resulting in insufficient mixing in some areas. Especially when the raw materials contain easily settling particles, the particles tend to accumulate at the bottom of the container and are difficult to disperse evenly. Second, for functional additives such as nano copper powder and activated carbon, if their particle size is large, direct mixing can easily lead to a rough texture in the latex paint, affecting the coating effect and antibacterial properties. Summary of the Invention
[0004] In view of this, the technical problem to be solved by the present invention is to provide an environmentally friendly latex paint and its processing technology, which can simultaneously complete the comprehensive and uniform mixing of raw materials and the crushing of particulate matter to produce a fine latex paint.
[0005] An environmentally friendly latex paint processing device includes a connecting ring, an outer ring connected to the connecting ring, an inner ring rotatably connected to the outer ring, multiple agitator plates fixed to the inner ring, a cylinder fixed between the multiple agitator plates, a crushing cone block connected to the cylinder, a rotating ring connected to the connecting ring, a crushing cone platform connected inside the rotating ring, the crushing cone platform having multiple crushing protrusions inside, and multiple circular holes opened on the cylinder, allowing the crushing cone platform to contact the crushing cone block.
[0006] It also includes multiple sliding rods fixed to the cylinder, with a rotating ring slidably connected between the multiple sliding rods, and a crushing cone rotatably connected inside the rotating ring.
[0007] It also includes a cylinder fixed to the lower side of the crushing cone, with multiple arc-shaped blocks fixed to the cylinder, a striking rod slidably connected to the rotating ring, a compression spring fixed between the striking rod and the rotating ring, and multiple auxiliary controls on the crushing cone.
[0008] It also includes multiple side frames fixed to the connecting ring, with the outer ring slidably connected between the multiple side frames, and a fixing ring fixed between the multiple side frames. The fixing ring is located below the outer ring, and a cylinder is fixed inside the fixing ring.
[0009] The aforementioned environmentally friendly latex paint processing device is used for a processing method of latex paint, which includes the following steps:
[0010] Step 1: Insert the connecting ring into the container containing the raw materials through the robotic arm, start the first motor to drive the inner ring to rotate, and drive the stirring plate to perform basic stirring, so that the slurry is initially mixed;
[0011] Step 2: The outer ring slides up and down along the side frame to change the working depth of the stirring plate, forming a spiral stirring trajectory, eliminating dead zones, and feeding the particles between the cylinder and the crushing cone.
[0012] Step 3: As the cylinder closes onto the stationary crushing cone, the crushing cone moves relative to it, squeezing the particles. At the same time, the rotation of the cylinder causes the crushing cone to rub the particles, thus achieving crushing.
[0013] Step 4: The striking rod periodically strikes the cylinder to generate vibration, preventing particles from sticking together;
[0014] Step 5: After mixing and crushing, remove the device and allow the latex paint to stand and mature to obtain a final product with a fine texture and uniform dispersion. Attached Figure Description
[0015] The present invention will now be described in further detail with reference to the accompanying drawings and specific implementation methods.
[0016] Figure 1 and Figure 2 This is a schematic diagram of the overall structure of an environmentally friendly latex paint processing device.
[0017] Figure 3 This is a schematic diagram of the rotating ring structure;
[0018] Figure 4 This is a schematic diagram of the structure of the crushing cone.
[0019] Figure 5 This is a schematic diagram of the connecting ring structure;
[0020] Figure 6 This is a schematic diagram of the outer ring structure;
[0021] Figure 7 This is a schematic diagram of the cylindrical structure;
[0022] Figure 8 This is a schematic diagram of the structure of the crushing cone block;
[0023] Figure 9This is a schematic diagram of the contact ball structure;
[0024] Figure 10 This is a schematic diagram of the structure for shelf placement. Detailed Implementation
[0025] An environmentally friendly latex paint processing device includes a connecting ring 201, an outer ring 301 connected to the connecting ring 201, the outer ring 301 being able to slide up and down along the connecting ring 201, an inner ring 307 rotatably connected to the outer ring 301, a plurality of stirring plates 304 fixedly connected to the inner ring 307, a cylinder 305 fixedly connected between the plurality of stirring plates 304, a crushing cone 402 connected to the cylinder 305, a rotating ring 101 connected to the connecting ring 201, a crushing cone 102 connected inside the rotating ring 101, a plurality of crushing protrusions 108 provided inside the crushing cone 102, a toothed ring fixedly connected to the inner ring 307, a first motor fixedly connected to the outer ring 301, a gear fixedly connected to the output shaft of the first motor, the gear meshing with the toothed ring, and a plurality of circular holes opened on the cylinder 305.
[0026] The connecting ring 201 is connected to a robotic arm that can move freely by tightening bolts. Then, the connecting ring 201 is inserted into a container containing the latex paint raw materials to be mixed. After entering the container, the first motor is started, and the gear of the first motor drives the gear ring to rotate, which in turn causes the inner ring 307 to rotate on the outer ring 301. During this process, the inner ring 307 will drive multiple stirring plates 304 to rotate synchronously, thereby using multiple stirring plates 304 to continuously stir the slurry raw materials in the container, so that the components of the slurry raw materials are evenly mixed to form latex paint.
[0027] During the stirring and mixing process, the operable outer ring 301 slides up and down on the connecting ring 201, thereby changing the stirring depth of the multiple stirring plates 304. This allows the multiple stirring plates 304 to stir and mix the raw materials at different depths, forming a spiral stirring trajectory in the container. This effectively removes the stirring dead zone in the container and prevents some slurry raw materials from settling due to their own characteristics, thus accumulating at the bottom of the container and affecting the mixing effect.
[0028] As the outer ring 301 slides back and forth on the connecting ring 201, some slurry enters the interior of the cylinder 305 and the crushing cone 102. As the outer ring 301 slides back and forth, the cylinder 305 gradually closes onto the outside of the crushing cone 102. During this process, the crushing cone 402 and the crushing cone 102 gradually slide relative to each other. As the outer ring 301 continues to slide, the liquid components in the slurry between the crushing cone 402 and the crushing cone 102 inside the cylinder 305 are gradually squeezed out through multiple holes on the cylinder 305. At this time, the particles in the slurry are retained inside the cylinder 305 and cannot be discharged. The space between the crushing cone 402 and the crushing cone 102 gradually decreases until the crushing cone 402 presses the remaining particles against the surface of the crushing cone 102, thereby squeezing the particles and crushing them, achieving the effect of crushing and eliminating the particles.
[0029] Because the rotation of multiple agitator plates 304 can drive the cylinder 305 to rotate synchronously, and the rotation of the cylinder 305 can drive the crushing cone 402 to rotate synchronously with the cylinder 305, when the crushing cone 402 contacts the crushing cone 102, the crushing cone 402 can rotate continuously while the crushing cone 102 will not rotate, thus rubbing the particles between the crushing cone 102 and the crushing cone 402. During this process, multiple crushing protrusions 108 can crush the particles and break them into small pieces. Then, in the subsequent stirring and mixing process, the small pieces of material are carried out by the liquid components. Thus, this equipment can achieve a spiral stirring trajectory while also crushing particles during the stirring and mixing process. While achieving efficient mixing, it can also make the particles distributed in a smaller state in the latex paint, thereby obtaining a product with a finer texture and improving the quality of the finished product.
[0030] The connection between the crushing cone 402 and the cylinder 305, and the fixation between the cylinder 305 and the agitator plate 304, ensure that the stirring power is directly converted into the rotational motion of the crushing components. This integrated design avoids setting up a separate power source for the crushing function, simplifies the equipment structure, improves space utilization and energy efficiency, and allows mixing and finishing to be completed continuously in the same process, significantly improving production efficiency.
[0031] It also includes multiple sliding rods 306 fixed to the cylinder 305, a rotating ring 101 slidably connected between the multiple sliding rods 306, and a crushing cone 102 rotatably connected inside the rotating ring 101.
[0032] The relative sliding effect between the subsequent crushing cone 402 and the crushing cone 102 is achieved through the sliding connection between the multiple sliding rods 306 and the rotating ring 101. The rotational connection between the rotating ring 101 and the crushing cone 102 ensures that when the cylinder 305 rotates and drives the rotating ring 101 to rotate through the multiple sliding rods 306, the crushing cone 102 does not rotate with the rotating ring 101, thus ensuring the subsequent particle crushing effect.
[0033] Since the rotating ring 101 and the crushing cone 102 are rotatably connected, the crushing cone 102 itself is not forced to rotate. It can remain stationary relative to the rotating ring 101. This design ensures that when the equipment slides up and down under the drive of the outer ring 301, causing the crushing cone 402 on the cylinder 305 to slide relative to the crushing cone 102 and gradually approach each other, the crushing cone 102 can maintain a stable posture, providing a reliable extrusion base for the particles. At the same time, a strong rubbing shearing force is generated between the continuously rotating crushing cone 402 and the stationary or relatively stationary crushing cone 102, which greatly enhances the crushing effect on the particles, far exceeding simple static extrusion.
[0034] It also includes a cylinder 103 fixed to the lower side of the crushing cone 102, a plurality of arc blocks 104 fixed to the cylinder 103, a striking rod 106 slidably connected to the rotating ring 101, and a compression spring fixed between the striking rod 106 and the rotating ring 101.
[0035] Since the crushing cone 102 does not rotate during the rotation of the rotating ring 101, relative rotation can occur between the rotating ring 101 and the crushing cone 102. During this time, the striking rod 106 on the rotating ring 101 passes through multiple arc-shaped blocks 104 in sequence. Each time the striking rod 106 passes through an arc-shaped block 104, it is pushed by the block to overcome the spring force and slide on the rotating ring 101. When the striking rod 106 is misaligned with the arc-shaped block 104, it is pushed by the spring and reset in the opposite direction, causing the striking rod... The striking rod 106 strikes the cylinder 103 repeatedly during equipment operation, causing the cylinder 103 and the crushing cone 102 to vibrate. The vibration waves generated by this impact are transmitted to the entire crushing cone 102, which can effectively shake off the particles adhering to its inner wall, prevent them from accumulating and affecting the crushing effect, and form an efficient and adaptive online unblocking method. This effectively avoids the situation where some particles are stuck in the crushing cone 102 and cannot be crushed smoothly or cannot be discharged smoothly after crushing.
[0036] Meanwhile, the multiple auxiliary control holes 105 on the crushing cone 102 also allow the crushed particles to be discharged from the crushing range through these auxiliary control holes 105, thus preventing the crushed particles from remaining inside the crushing cone 102. The multiple auxiliary holes 105 on the crushing cone 102 work synergistically with the aforementioned impact mechanism. The impact vibration loosens the crushed or agglomerated particles, while the auxiliary holes 105 provide additional discharge channels for these fine particles and the liquid in the slurry. This prevents the material that has reached the required particle size from being over-crushed and also prevents... These particles clog the crushing chamber, affecting the crushing space for newly entering materials. At the same time, the fluid shear force generated when the slurry flows through the auxiliary holes 105 can also play a certain self-cleaning role in the holes and carry away the loosened particles, thus ensuring the continuity and stability of the crushing process. This is crucial for improving overall production efficiency and preventing situations where the crushing effect of other particles is affected. In addition, the liquid in the slurry can be flushed down by the flow of multiple auxiliary control holes 105, further ensuring the effect of subsequent multiple crushing operations.
[0037] It also includes multiple side frames 203 fixed to the connecting ring 201, an outer ring 301 slidably connected between the multiple side frames 203, a fixing ring 107 fixed between the multiple side frames 203, the fixing ring 107 is located on the lower side of the outer ring 301, and a cylinder 103 is fixed inside the fixing ring 107.
[0038] The fixed connection between the connecting ring 201, multiple side frames 203, fixed ring 107 and cylinder 103 ensures that the cylinder 103 remains relatively stationary with the connecting ring 201 during equipment operation. Since the outer ring 301 is slidably connected to the multiple side frames 203, the outer ring 301 can slide up and down, thereby using multiple stirring plates 304 to smoothly achieve the stirring effect on the material. At the same time, the up and down sliding of the outer ring 301 drives the crushing cone 402 and cylinder 305 to move up and down, which, together with the stationary cylinder 103, can achieve the subsequent crushing effect.
[0039] The connecting ring 201, multiple side frames 203, and fixed ring 107 are fixedly connected to the cylinder 103 to form a high-rigidity overall support frame. The primary function of this frame is to serve as the skeleton of the equipment, ensuring that the cylinder 103 remains relatively stationary with respect to the connecting ring 201 under complex stirring and crushing stress conditions, providing a stable installation reference for the entire equipment. The outer ring 301 is slidably connected between the multiple side frames 203. The side frames not only play a supporting role, but more importantly, they act as precision sliding guides. This multi-point guiding design can effectively constrain the motion freedom of the outer ring 301, allowing it to slide smoothly only along a preset vertical path. This precisely converts the simple up-and-down movement of the drive source into the depth adjustment of the stirring plate 304 and the feeding action of the crushing cone 402, avoiding jamming or swaying during the movement.
[0040] The rotating connection design between the rotating ring 101 and the crushing cone 102 allows the rotating ring 101 to rotate freely with the slide bar 306, while the crushing cone 102 can remain stationary independently. This motion decoupling ensures that when the rotating crushing cone 402 approaches the stationary crushing cone 102, a strong and continuous rubbing shearing force is generated between them, rather than simple static compression. This greatly improves the crushing efficiency and fineness of particulate matter such as pigment clumps or functional fillers.
[0041] Each side frame 203 is fixedly connected to a transverse frame 205.
[0042] Multiple horizontally mounted stirring shafts with their own power sources can be connected to multiple horizontal frames 205 by screwing bolts into them. These horizontally mounted stirring shafts assist the continuously rotating stirring plates 304 in further eliminating dead zones in the mixing process, improving the uniformity of mixing. The core function of the horizontal frame 205 is as a scalable modular interface. Multiple horizontally mounted stirring shafts with their own power sources can be flexibly installed via bolt connections. This design eliminates reliance on a single, vertical stirring direction, introducing horizontal stirring force instead. Multiple horizontal stirring shafts work in conjunction with the vertically rotating and up-and-down moving stirring plates 304 to create a complex three-dimensional flow field within the mixing tank. Vertical stirring ensures the uniformity of the material in the depth direction, while horizontal stirring strongly disturbs the material at the horizontal level. The combination of these two effectively breaks down traditional dead zones near the tank wall, bottom, and around the stirring shafts, achieving 360-degree mixing without dead angles and greatly improving the mixing uniformity of the latex paint components.
[0043] When the horizontally mounted stirring shaft operates, it drives the slurry to generate strong random convection and eddies in the horizontal plane. This irregular flow has two key benefits: First, it further intensifies the shearing and mixing of the fluid, quickly eliminating any potential localized concentration inconsistencies in the initial state and improving mixing efficiency. Second, and more ingeniously, this horizontal random flow actively "sweeps" or "pushes" slurry containing uncrushed particles distributed throughout the tank into the crushing zone formed by the cylinder 305 and the crushing cone 102. This changes the passive situation of relying solely on the natural settling or vertical flow of the slurry into the crushing zone, transforming passive waiting into active capture, ensuring that particles in the slurry are fed into the crushing mechanism more frequently and comprehensively for processing, thereby achieving "comprehensive crushing" of the particles.
[0044] It also includes a contact ball 403 fixed to the crushing cone 402, a central part 303 fixed between multiple agitators 304, a through hole on the central part 303, the crushing cone 402 contacts the upper side of the hole, a pressure head 401 fixed to the central part 303, and the contact ball 403 is located between the through hole and the pressure head 401.
[0045] The restraint between the pressure head 401 and the center part 303 allows the contact ball 403 to have sufficient friction, so that when the center part 303 rotates with the multiple agitators 304, the pressure head 401 and the center part 303 can drive the contact ball 403 to rotate synchronously, thereby ensuring that the crushing cone block 402 can rotate synchronously with the multiple agitators 304, thus ensuring the smooth operation of the rotary rubbing operation;
[0046] In actual use, if the slurry contains high-hardness materials and the particles cannot be efficiently broken by rotation and rubbing alone, the contact ball 403 can move in the space between the pressure head 401 and the through hole in the center 303. In the process of rotation and rubbing, the crushing cone 402 can also move in a circumferential direction, which further enables the particles to be subjected to more varied crushing effects and improves the crushing efficiency of the particles.
[0047] It also includes an upper frame 302 fixed to the outer ring 301, an extrusion head 502 connected to the upper frame 302, a transmission rod 404 fixed to the contact ball 403, the extrusion head 502 can contact the transmission rod 404, and the extrusion head 502 can move up and down in the vertical direction.
[0048] The transmission rod 404 has a certain inclination at its initial position. When the transmission rod 404 contacts the lower side of the extrusion head 502, the extrusion head 502 can press the transmission rod 404, thereby causing the contact ball 403 to roll in the space between the pressure head 401 and the center part 303. At this time, the crushing cone block 402 can tilt, thereby achieving enhanced crushing operation. After extrusion, the extrusion head 502 slides upward to reset.
[0049] Simultaneously, by periodically adjusting the downward slope of the extrusion head 502, the pushing angle of the extrusion head 502 against the transmission rod 404 can be adjusted, thereby expanding the movable range of the contact ball 403, further making the crushing process more varied and improving the crushing effect. On the basis of rotary extrusion, a dynamic oscillation with constantly changing amplitude and direction is superimposed. This composite motion causes the particles to be subjected to a combined effect, which greatly promotes the crushing of stubborn particle agglomerates, and is especially conducive to achieving ultrafine and uniform crushing effects.
[0050] The constraint between the pressing head 401 and the center part 303 provides sufficient static friction force, ensuring that the crushing cone 402 can stably follow the rotation of the stirring plate 304 for most of the time when the pressing head 502 is not in contact with the transmission rod 404, and perform conventional and efficient rotary rubbing crushing. The enhanced oscillating crushing effect is only triggered by the hard contact between the pressing head 502 and the transmission rod 404 when needed.
[0051] After the crushing cone 402 has reached its maximum displacement, the connecting ring 201 can be lifted out of the liquid surface as a whole, and then the rotation and rubbing crushing can continue to improve the crushing effect. After crushing, a horizontally placed mechanical arm can be used to actively push the transmission rod 404 to reset, thereby resetting the crushing cone 402 and continuing the subsequent normal rotation and rubbing operation.
[0052] It also includes an electric push rod B501 fixed to the upper frame 302. The telescopic rod of the electric push rod B501 is fixed to the extrusion head 502. Each side frame 203 is fixed with an electric push rod A204. The telescopic rods of multiple electric push rods A204 are fixed to multiple side frames 203 respectively.
[0053] By using the telescopic rod of the electric push rod B501 to push the extrusion head 502, the position of the extrusion head 502 is adjusted, thereby adjusting the angle at which the transmission rod 404 is pushed, and completing various subsequent crushing functions.
[0054] By operating the telescopic rods of multiple side frames 203, the position of the outer ring 301 can be adjusted, thereby completing the full agitation and subsequent rubbing and crushing functions.
[0055] The aforementioned environmentally friendly latex paint processing device is used for a processing method of latex paint, which includes the following steps:
[0056] Step 1: Insert the connecting ring 201 into the container containing the raw materials through the robotic arm, start the first motor to drive the inner ring 307 to rotate, drive the stirring plate 304 to perform basic stirring, so that the slurry is initially mixed.
[0057] Step 2: The outer ring 301 slides up and down along the side frame 203 to change the working depth of the stirring plate 304, forming a spiral stirring trajectory, eliminating dead zones, and sending the particles into the space between the cylinder 305 and the crushing cone 102.
[0058] Step 3: As the cylinder 305 closes onto the stationary crushing cone 102, the crushing cone 402 moves relative to it, squeezing the particles. At the same time, the rotation of the cylinder 305 drives the crushing cone 402 to rub the particles, thus achieving crushing.
[0059] Step 4: The striking rod 106 periodically strikes the cylinder 103 to generate vibration, preventing particles from sticking together;
[0060] Step 5: After mixing and crushing, remove the device and allow the latex paint to stand and mature to obtain a final product with a fine texture and uniform dispersion.
[0061] The environmentally friendly latex paint produced by the aforementioned environmentally friendly latex paint processing method comprises the following raw materials in parts by weight: 50 parts VAE emulsion, 0.5 parts film-forming aid, 4 parts co-solvent, 20 parts bamboo charcoal powder, 10 parts calcined kaolin, 0.6 parts bactericide, 2 parts defoamer, 0.5 parts wetting agent, 2.5 parts dispersant, 3 parts thickener, and 25 parts deionized water.
Claims
1. An environmentally friendly latex paint processing device, characterized in that, It includes a connecting ring, an outer ring connected to the connecting ring, an inner ring rotatably connected to the outer ring, multiple agitator plates fixed to the inner ring, a cylinder fixed between the multiple agitator plates, a crushing cone block connected to the cylinder, a rotating ring connected to the connecting ring, a crushing cone platform connected inside the rotating ring, the crushing cone platform having multiple crushing protrusions inside, and multiple circular holes opened on the cylinder, allowing the crushing cone platform to contact the crushing cone block.
2. The environmentally friendly latex paint processing device according to claim 1, characterized in that, It also includes multiple sliding rods fixed to the cylinder, with a rotating ring slidably connected between the multiple sliding rods, and a crushing cone rotatably connected inside the rotating ring.
3. The environmentally friendly latex paint processing device according to claim 2, characterized in that, It also includes a cylinder fixed to the lower side of the crushing cone, with multiple arc-shaped blocks fixed to the cylinder, a striking rod slidably connected to the rotating ring, a compression spring fixed between the striking rod and the rotating ring, and multiple auxiliary controls on the crushing cone.
4. The environmentally friendly latex paint processing device according to claim 3, characterized in that, It also includes multiple side frames fixed to the connecting ring, with the outer ring slidably connected between the multiple side frames, and a fixing ring fixed between the multiple side frames. The fixing ring is located below the outer ring, and a cylinder is fixed inside the fixing ring.
5. The environmentally friendly latex paint processing device according to claim 4, characterized in that, Each side frame is fixed with a transverse frame.
6. The environmentally friendly latex paint processing device according to claim 4, characterized in that, It also includes a contact ball fixed to the crushing cone block, a central part fixed between multiple agitators, a through hole on the central part, the crushing cone block in contact with the upper side of the hole, a snap head fixed to the central part, and the contact ball located between the through hole and the snap head.
7. The environmentally friendly latex paint processing device according to claim 6, characterized in that, It also includes an upper frame fixed to the outer ring, on which an extrusion head is connected. A transmission rod is fixed to the contact ball, and the extrusion head can contact the transmission rod and move up and down in the vertical direction.
8. The environmentally friendly latex paint processing device according to claim 7, characterized in that, It also includes an electric push rod B fixed to the upper frame, the telescopic rod of the electric push rod B being fixed to the extrusion head, an electric push rod A being fixed to each side frame, and the telescopic rods of multiple electric push rods A being fixed to multiple side frames respectively.
9. The method for processing latex paint using an environmentally friendly latex paint processing device according to claim 8, characterized in that, The method includes the following steps: Step 1: Insert the connecting ring into the container containing the raw materials through the robotic arm, start the first motor to drive the inner ring to rotate, and drive the stirring plate to perform basic stirring, so that the slurry is initially mixed; Step 2: The outer ring slides up and down along the side frame to change the working depth of the stirring plate, forming a spiral stirring trajectory, eliminating dead zones, and feeding the particles between the cylinder and the crushing cone. Step 3: As the cylinder closes onto the stationary crushing cone, the crushing cone moves relative to it, squeezing the particles. At the same time, the rotation of the cylinder causes the crushing cone to rub the particles, thus achieving crushing. Step 4: The striking rod periodically strikes the cylinder to generate vibration, preventing particles from sticking together; Step 5: After mixing and crushing, remove the device and allow the latex paint to stand and mature to obtain a final product with a fine texture and uniform dispersion.
10. The environmentally friendly latex paint processed using the environmentally friendly latex paint processing method according to claim 9, characterized in that, This environmentally friendly latex paint contains the following raw materials in parts by weight: 30-50 parts VAE emulsion, 0.3-0.5 parts film-forming aid, 2-4 parts co-solvent, 10-20 parts bamboo charcoal powder, 5-10 parts calcined kaolin, 0.4-0.6 parts bactericide, 1-2 parts defoamer, 0.3-0.5 parts wetting agent, 1.5-2.5 parts dispersant, 2-3 parts thickener, and 15-25 parts deionized water.