An automatic fly ash dispersion device

Abstract

This invention relates to the field of detection device technology and discloses an automatic fly ash dispersion device, including a display screen, an analysis mechanism, a feed hopper, a sealing door, and a water storage tank. In this invention, when the rotating plate rotates counterclockwise, the mixed liquid moves from the right side of the opening and closing plate to the left side. When it reaches the left side of the opening and closing plate surface, the rotating plate is compressed against the opening and closing plate surface by the elastic force of the elastic strip, causing the opening and closing plate to tilt via the rotating rod. The mixture then falls through the tilted opening of the opening and closing plate by the rotation of the rotating plate. The fly ash and the falling mixed liquid are stirred by the forward and reverse rotation stirring mechanism. The mixture moves to the right side of the opening and closing plate surface under the scraping action of the rotating plate, thus scraping up the fly ash on the opening and closing plate surface. This allows the settled fly ash to participate in the upper stirring and mixing, avoiding uneven stirring of some fly ash that would affect subsequent dispersion.

Description

Technical Field

[0001] This invention relates to the field of detection device technology, specifically an automatic fly ash dispersion device. Background Technology

[0002] Fly ash is a solid waste produced during the high-temperature combustion of pulverized coal in coal-fired power plants. It is commonly used as a building material or as an adsorbent in environmental engineering. Fly ash particles have a microscopic spherical glassy structure, and surface tension makes them prone to agglomeration in their natural state. In engineering materials such as concrete, fly ash needs to be uniformly dispersed to exert its function. To test the dispersibility of fly ash, firstly, a mixture of fly ash and dispersant (water) at a mass ratio of 1:50 is weighed. The mixture is then placed in an ultrasonic disperser and dispersed for 2 minutes. Next, a prepared glass slide sample is placed under a microscope, and the particle size is selected... Multiple sets of microscopic morphology images of fly ash were captured in a field of view where the fly ash was relatively evenly dispersed and had a sufficient number of particles. Then, fly ash rapid identification software was used for image processing, depth-of-field fusion, and fly ash microsphere identification. Finally, the software was used to analyze and calculate the particle morphology characteristic parameters such as the diameter, number, and area of ​​the round glass microspheres in the images, and output the results of fly ash microsphere roundness and area ratio. According to the irregularity of microsphere roundness being less than (or equal to) 0.72 and the proportion in the 0.94-1 range being less than (or equal to) 6.78%, it was judged as fake fly ash. Thus, real and fake fly ash can be quickly distinguished through image analysis.

[0003] However, when fly ash and dispersant (water) are ultrasonically dispersed, they need to be mixed in a certain proportion to form a mixture. The mixing proportion needs to be manually adjusted, and differences in the mixing proportion can easily affect the dispersibility of the fly ash and dispersant (water) mixture. Furthermore, during mixing, some fly ash tends to sink to the bottom, causing some parts of the mixture to be too dry. After the mixture is prepared, it needs to be manually transferred to a certain area under a microscope, which can easily cause human intervention to contaminate the mixture and affect the dispersion of the image taken by the microscope. The guide rail transfer can easily cause the mixture to move to one side under the inertia of movement, resulting in the accumulation of the mixture and affecting the analysis of genuine and fake fly ash. Summary of the Invention

[0004] The present invention provides an automatic fly ash dispersion device that overcomes the shortcomings described in the background art.

[0005] The technical solution adopted by this invention to solve its technical problem is:

[0006] An automatic fly ash dispersion device includes a display screen, an analysis mechanism, a feed hopper, a sealing door, and a water storage tank. The display screen is located on the side of the analysis mechanism. Fly ash is fed into the feed hopper at the top of the analysis mechanism. The display screen controls the mixing ratio of fly ash and water in the feed hopper and water storage tank inside the analysis mechanism. The sealing door is located on the side of the analysis mechanism and can be opened and closed.

[0007] The analytical mechanism includes a weighing plate, a stirrer, a supporting mechanism, an ultrasonic generator, a slide rail, a housing, a processor, and a microscope. A motor is located at the right end of the weighing plate and is fixed to the lower end of the feed hopper. The weighing plate rotates and tilts via the motor's output. The stirrer is located below the weighing plate and is electrically connected to the processor. The processor controls the stirrer to rotate forward, stirring fly ash and water. When the stirrer rotates in the reverse direction, the mixture of fly ash and water falls from the stirrer onto the supporting mechanism. The slide rail is horizontally positioned within the housing, and a hydraulic actuator is located on its side. The output of the hydraulic actuator pushes the supporting mechanism to slide horizontally on the slide rail. The output of the ultrasonic generator corresponds to the center of the supporting mechanism. The microscope and processor are electrically connected to a display screen, and the lower end of the microscope scans and analyzes the supporting mechanism below.

[0008] A preferred technical solution: The stirrer is provided with a stirring mechanism, a motor and an opening and closing mechanism. The motor is located in the middle of the opening and closing mechanism, and the motor output end is connected to the stirring mechanism. The motor electrical signal is connected to the processor and controls the motor output end to rotate the stirring mechanism. The bottom end of the stirring mechanism rotates on the surface of the opening and closing mechanism. When the stirring mechanism rotates in the opposite direction, the stirring mechanism presses the opening and closing mechanism and causes the opening and closing mechanism to open and close.

[0009] A preferred technical solution: The stirring mechanism is provided with a round rod, a rotating plate, an elastic strip and a fixed rod. The fixed rod is arranged around the outside of the round rod and is vertically connected to the motor output end through the round rod. The two sides of the elastic strip are attached to the sides of the fixed rod and the rotating plate. The rotating plate moves and rotates on the side of the fixed rod. When the rotating plate is in a horizontal state, the elasticity of the elastic strip causes the rotating plate to abut against the surface of the opening and closing mechanism.

[0010] A preferred technical solution: The opening and closing mechanism includes a rubber strip, an opening and closing plate, a rotating rod, and a flat panel. The rotating rod is equipped with a spring inside and is located inside the opening and closing plate. Both ends of the rotating rod are fixed inside the flat panel. The opening and closing plate rotates elastically downward through the spring inside the rotating rod. The rubber strip is attached between the opening and closing plate and the flat panel. When the rotating plate rotates in the opposite direction on the surface of the flat panel, the top of the rotating plate presses against the opening and closing plate.

[0011] A preferred technical solution: The supporting mechanism is provided with a surrounding plate, sliding rods, a fixed plate, a glass slide and a vertical plate. The fixed plate is provided with a glass slide corresponding to the bottom of the microscope in the middle. The upper end of the fixed plate is provided with a surrounding plate. The vertical plate is located at the lower end of the fixed plate. The vertical plate is provided with symmetrically distributed sliding rods on its side. The sliding rods move in the middle of the slide rail by being pushed by a hydraulic device.

[0012] A preferred technical solution: The sliding rod is provided with a rubber sleeve, an arc plate and a connecting rod. The rubber sleeve is attached to the outside of the connecting rod. Arc plates are symmetrically arranged on the upper and lower sides of the rubber sleeve. The inner side of the slide rail is provided with semi-circular strips, which are equidistantly distributed. When the hydraulic device pushes the rubber sleeve to move, the arc plate moves in a vibrating manner on the semi-circular strips under the elastic compression of the rubber sleeve, and the connecting rod drives the fixed plate at the upper end of the vertical plate to vibrate.

[0013] Compared with existing technologies, this technical solution has the following advantages:

[0014] In this invention, when the rotating plate rotates counterclockwise, the mixed liquid moves from the right side to the left side of the opening and closing plate. When it reaches the left side of the opening and closing plate surface, the rotating plate is compressed against the opening and closing plate surface by the elastic force of the elastic strip, causing the opening and closing plate to tilt via the rotating rod. Then, it is driven by the rotation of the rotating plate to fall into the tilted opening of the opening and closing plate. The forward and reverse rotation stirring mechanism realizes the stirring of fly ash and falling mixed liquid. Through the scraping action of the bottom of the opening and closing mechanism, the mixed liquid moves to the right side of the opening and closing plate 232 surface under the scraping action of the rotating plate 212, realizing the scraping of fly ash on the surface of the opening and closing plate 232, so that the settled fly ash participates in the upper stirring and mixing, avoiding uneven stirring of some fly ash affecting subsequent dispersion.

[0015] In this invention, after the ultrasonic generator impacts and disperses the mixture on the surface of the glass slide, the processor controls the hydraulic device to push the sliding rod with its output end, causing the sliding rod to move within the slide rail. At this time, the left side of the rubber sleeve moves to the right, and during the movement, the arc-shaped plate squeezes the semi-circular strip under the elasticity of the rubber sleeve. Since the connecting rod is in a translational state and the semi-circular strips are arranged at intervals, the arc-shaped plate will act on the semi-circular strips at intervals. As the arc-shaped plate moves, it is squeezed by the semi-circular strips at intervals, causing the arc-shaped plate to vibrate and drive the vertical plate connected to the connecting rod to vibrate slightly up and down. This ensures that the glass slide is in a state of slight vibration when the vertical plate moves, and prevents the mixture on the surface of the glass slide from accumulating to one side under the action of inertia due to the movement of the vertical plate. Attached Figure Description

[0016] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0017] Figure 1 This is an overall diagram of the present invention.

[0018] Figure 2 This is a side view of the analysis mechanism.

[0019] Figure 3 This is a side view of the stirrer.

[0020] Figure 4 This is a plan view of the stirring mechanism.

[0021] Figure 5 This is a schematic diagram of the opening and closing mechanism in plan and a partial side view.

[0022] Figure 6 This is a partial three-dimensional schematic diagram of the supporting mechanism.

[0023] Figure 7 This is a side view of the sliding rod.

[0024] In the diagram: Display screen-1, Analysis mechanism-2, Feed hopper-3, Sealed door-4, Water tank-5, Weighing plate-21, Agitator-22, Bearing mechanism-23, Ultrasonic generator-24, Slide rail-25, Housing-26, Processor-27, Microscope-28, Agitation mechanism-221, Motor-222, Opening and closing mechanism-223, Round rod-211, Rotating plate-212, Elastic strip-213, Fixed rod-214, Rubber strip-231, Opening and closing plate-232, Rotating rod-233, Flat plate-234, Enclosure plate-31, Sliding rod-32, Fixed plate-33, Glass slide-34, Vertical plate-35, Semicircular strip-101, Rubber sleeve-321, Arc plate-322, Connecting rod-323. Detailed Implementation

[0025] like Figures 1 to 7 As shown, the present invention proposes an automatic fly ash dispersion device, including a display screen 1, an analysis mechanism 2, a feed hopper 3, a sealing door 4, and a water storage tank 5. The display screen 1 is located on the side of the analysis mechanism 2. Fly ash is put into the feed hopper 3 at the upper end of the analysis mechanism 2. The mixing ratio of fly ash and water in the feed hopper 3 and the water storage tank 5 inside the analysis mechanism 2 is controlled by the display screen 1. The sealing door 4 is located on the side of the analysis mechanism 2 for opening and closing.

[0026] The analysis unit 2 includes a weighing plate 21, a stirrer 22, a supporting mechanism 23, an ultrasonic generator 24, a slide rail 25, a housing 26, a processor 27, and a microscope 28. The weighing plate 21 has a motor at its right end, which is fixed to the lower end of the feed hopper 3. The weighing plate 21 rotates and tilts via the motor's output. The stirrer 22 is located below the weighing plate 21 and is electrically connected to the processor 27. The processor 27 controls the stirrer 22 to rotate forward, stirring fly ash and water. When the stirrer 22 rotates in the reverse direction, the mixture of fly ash and water falls from the stirrer 22 onto the supporting mechanism 23. The slide rail 25 is horizontally arranged inside the housing 26, and a hydraulic device is located on its side. The output of the hydraulic device pushes the supporting mechanism 23 to slide horizontally on the slide rail 25. The output of the ultrasonic generator 24 corresponds to the middle of the supporting mechanism 23. The microscope 28 and the processor 27 are electrically connected to the display screen 1, and the lower end of the microscope 28 scans and analyzes the supporting mechanism 23 below.

[0027] Furthermore, the weighing plate 21 has a weighing effect, weighing the fly ash entering from the feed hopper 3. The weight data is transmitted to the processor 27, which controls the valve in the water storage tank 5 to open and control the water flowing out of the water storage tank 5 to the surface of the agitator 22. The weight of the water flowing out of the water storage tank 5 is in a 50:1 ratio with the weight of the fly ash. Then, the motor on the right end of the weighing plate 21 is controlled by the processor 27 to open and close, causing the motor output to rotate and drive the weighing plate 21 to rotate. Subsequently, the fly ash falls from the weighing plate 21 to the surface of the agitator 22, and the rotation of the agitator 22 drives the fly ash and water to mix and form a mixture.

[0028] Furthermore, when the weighing plate 21 is in a horizontal state, it closes the bottom of the feed hopper 3. The processor 27 and the microscope 28 are fixed inside the housing 26, while the agitator 22 is fixed inside the housing 26 in a horizontal state.

[0029] The stirrer 22 is equipped with a stirring mechanism 221, a motor 222, and an opening and closing mechanism 223. The motor 222 is located in the middle of the opening and closing mechanism 223, and the output end of the motor 222 is connected to the stirring mechanism 221. The motor 222 is electrically connected to the processor 27, which controls the output end of the motor 222 to rotate relative to the stirring mechanism 221. The lowermost end of the stirring mechanism 221 rotates on the surface of the opening and closing mechanism 223. When the stirring mechanism 221 rotates in the opposite direction, it presses the opening and closing mechanism 223, causing the opening and closing mechanism 223 to open and close.

[0030] The stirring mechanism 221 includes a round rod 211, a rotating plate 212, an elastic strip 213, and a fixed rod 214. The fixed rod 214 is arranged around the outside of the round rod 211 and is vertically connected to the output end of the motor 222 through the round rod 211. The two sides of the elastic strip 213 are attached to the sides of the fixed rod 214 and the rotating plate 212. The rotating plate 212 moves and rotates on the side of the fixed rod 214. When the rotating plate 212 is in a horizontal state, the elasticity of the elastic strip 213 causes the rotating plate 212 to abut against the surface of the opening and closing mechanism 223.

[0031] Furthermore, the elastic strip 213 is made of rubber and has the characteristic of compression elasticity. The stirring mechanism 221 is equipped with twelve fixed rods 214, which are horizontally distributed in two layers. The bottom fixed rods 214 rub against the surface of the opening and closing mechanism 223. When the elastic strips 213 on the side of the fixed rods 214 are stationary, the rotating plate 212 will be in an inclined state. The bottom rotating plate 212 is in a horizontal state and abuts against the surface of the opening and closing mechanism 223. At this time, the elastic strips 213 are in a compressed state, so the rotating plate 212 is in close contact with the surface of the opening and closing mechanism 223 and performs pressing activities. When the fixed rods 214 rotate clockwise, the fixed rods 214 have a scraping effect on the bottom of the opening and closing mechanism 223, causing the fly ash and water at the bottom to be scraped up and stirred. After the mixture is stirred into a mixture, the processor 27 controls the output end of the motor 222 to rotate counterclockwise around the round rod 211. At this time, the rotating plate 212 rotates counterclockwise, and the opening and closing mechanism 223 creates a gap, causing the mixture to fall.

[0032] The opening and closing mechanism 223 includes a rubber strip 231, an opening and closing plate 232, a rotating rod 233, and a flat panel 234. The rotating rod 233 has a spring inside and is located inside the opening and closing plate 232. Both ends of the rotating rod 233 are fixed inside the flat panel 234. The opening and closing plate 232 rotates elastically downward through the spring inside the rotating rod 233. The rubber strip 231 is attached between the opening and closing plate 232 and the flat panel 234. When the rotating plate 212 rotates in the opposite direction on the surface of the flat panel 234, the top of the rotating plate 212 presses against the opening and closing plate 232.

[0033] In this invention, six opening and closing plates 232 are provided, and the opening and closing plates 232 are arranged in a ring around the circular rod 211 on the surface of the flat plate 234. When the rotating plate 212 moves clockwise on the surface of the flat plate 234, the outer end of the rotating plate 212 moves from the left side of the opening and closing plate 232 to the right side. At this time, the rotating plate 212 will generate a slight downward rotational elastic force. However, when the rotating plate 212 moves clockwise, it will scrape the surface of the opening and closing plate 232 and be held in place by the elastic force of the spring inside the rotating rod 233. Thus, the rotating plate 212 produces a scraping effect on the surface of the opening and closing plate 232. In this invention, since the maximum tilt angle of the opening and closing plate 232 is 10°, the surface of the opening and closing plate 232 and the top of the rotating plate 212 are at a relatively large obtuse angle. The opening and closing plate 232 will not have a large mutual perpendicular action with the top of the rotating plate 212, but will only produce a friction scraping effect. In this invention, the mixed liquid moves to the right side of the surface of the opening and closing plate 232 under the scraping action of the rotating plate 212 on the surface of the opening and closing plate 232, thereby scraping up the fly ash on the surface of the opening and closing plate 232, so that the settled fly ash participates in the mixing above, and avoids the uneven mixing of some fly ash affecting the subsequent dispersion.

[0034] In this invention, when the rotating plate 212 rotates counterclockwise, the mixture moves from the right side to the left side of the opening and closing plate 232. When it reaches the left side of the surface of the opening and closing plate 232, the rotating plate 212 is squeezed against the surface of the opening and closing plate 232 by the compressive force of the elastic strip 213, causing the opening and closing plate 232 to tilt by the rotating rod 233. Then, it is driven by the rotation of the rotating plate 212 to fall into the tilted opening of the opening and closing plate 232. By rotating the stirring mechanism 221 in both directions and scraping the bottom of the opening and closing mechanism 223, some fly ash is prevented from settling at the bottom and being difficult to stir.

[0035] Furthermore, the rubber strip 231 compresses and fills the gap on the right side of the opening and closing plate 232, while the rubber strip 231 is in a state of pressing against the inner side of the flat plate 234 on the left side of the opening and closing plate 232. When the opening and closing plate 232 is tilted, the rubber strip 231 will detach from the inner side of the flat plate 234 on the left side of the opening and closing plate 232, so that a gap for the liquid mixture to fall is generated on the left side of the opening and closing plate 232.

[0036] The supporting mechanism 23 includes a surrounding plate 31, sliding rods 32, a fixed plate 33, a glass slide 34, and a vertical plate 35. The fixed plate 33 has a glass slide 34 corresponding to the area below the microscope 28 in the middle. The upper end of the fixed plate 33 is provided with the surrounding plate 31. The vertical plate 35 is located at the lower end of the fixed plate 33. The vertical plate 35 has symmetrically distributed sliding rods 32 on its side, and the sliding rods 32 move in the middle of the slide rail 25 by being pushed by a hydraulic device.

[0037] Furthermore, the glass slides 34 are arranged at intervals, and the mixed liquid is located at the output end of the ultrasonic generator 24 below the surface of the glass slide 34. The ultrasonic generator 24 emits ultrasonic frequencies between 20-40kHz, and the wavelength of the frequency is relatively short, so it only acts on the surface of the glass slide 34. In addition, the ultrasonic generator 24 has a timing module, which can ensure that it acts on the glass slide 34 precisely for 2 minutes, so as to disperse the mixed liquid on the surface of the glass slide 34.

[0038] The sliding rod 32 is provided with a rubber sleeve 321, an arc plate 322 and a connecting rod 323. The rubber sleeve 321 is attached to the outside of the connecting rod 323. The arc plates 322 are symmetrically arranged on the upper and lower sides of the rubber sleeve 321. The inner side of the slide rail 25 is provided with a semi-circular strip 101, which is equidistantly distributed. When the hydraulic device pushes the rubber sleeve 321 to move, under the elastic compression of the rubber sleeve 321, the arc plate 322 moves in a vibrating manner on the semi-circular strip 101, and the connecting rod 323 drives the fixed plate 33 at the upper end of the vertical plate 35 to vibrate.

[0039] In this invention, after the ultrasonic generator 24 impacts and disperses the mixture on the surface of the glass slide 34, the processor 27 controls the hydraulic device to push the sliding rod 32 with its output end, causing the sliding rod 32 to move within the slide rail 25. At this time, the rubber sleeve 321 moves from left to right. During the movement, the arc plate 322 squeezes the semicircular strip 101 under the elasticity of the rubber sleeve 321. Since the connecting rod 323 is in a translational state and the semicircular strips 101 are arranged at intervals, the arc plate 322 will act on the semicircular strips 101 at intervals. As the arc plate 322 moves, it vibrates under the intermittent squeezing of the semicircular strips 101, and drives the vertical plate 35 connected to the connecting rod 323 to vibrate slightly up and down. This ensures that the glass slide 34 is in a state of slight vibration when the vertical plate 35 moves, and prevents the mixture on the surface of the glass slide 34 from accumulating to one side due to inertia.

[0040] In this invention, the glass slide 34 is moved to the underside of the microscope 28 via the sliding rod 32 on the outside of the vertical plate 35 within the slide rail 25. The microscope 28 performs image analysis on the mixture on the surface of the glass slide 34. The microscope 28 has a built-in standard microbead reference plate, which automatically calibrates optical distortion upon startup. Furthermore, the microscope 28 is equipped with a dedicated image processing chip that uses an integrated roundness calculation core to output data on the number, diameter, and area ratio of microbeads in the mixture in real time. Based on standard parameters such as the proportion of true gray microbeads >70%, the authenticity of the mixture is analyzed.

[0041] The above description is merely a preferred embodiment of the present invention, and therefore should not be construed as limiting the scope of the present invention. All equivalent changes and modifications made in accordance with the scope of the patent and the contents of the specification should still fall within the scope of the present invention.

Claims

1. An automatic fly ash dispersion device, characterized in that, The device includes a display screen, an analysis mechanism, a feed hopper, a sealing door, and a water storage tank. The display screen is located on the side of the analysis mechanism. Fly ash is fed into the feed hopper at the top of the analysis mechanism. The display screen controls the feed hopper and the water storage tank to control the mixing ratio of fly ash and water inside the analysis mechanism. The sealing door is located on the side of the analysis mechanism and can be opened and closed. The analysis mechanism includes a weighing plate, a stirrer, a supporting mechanism, an ultrasonic generator, a slide rail, a housing, a processor, and a microscope. A motor is located at the right end of the weighing plate, fixed to the lower end of the feed hopper. The weighing plate rotates and tilts via the motor's output. The stirrer is located below the weighing plate and is connected to the processor via an electrical signal. When the stirrer rotates forward, it stirs the fly ash and water; when it rotates in the reverse direction, the mixture of fly ash and water falls from the stirrer to the supporting mechanism. The slide rail is horizontally arranged within the housing, and a hydraulic actuator is located on its side. The output of the hydraulic actuator pushes the supporting mechanism to slide horizontally on the slide rail. The output of the ultrasonic generator is located in the middle of the supporting mechanism. The microscope and processor are both connected to a display screen via electrical signals, and the lower end of the microscope scans and analyzes the supporting mechanism below. The stirrer is equipped with a stirring mechanism, a motor and an opening and closing mechanism. The motor is located in the middle of the opening and closing mechanism and its output end is connected to the stirring mechanism. The motor is connected to the processor via an electrical signal and controls the motor output end to realize the rotation of the stirring mechanism. The bottom end of the stirring mechanism rotates on the surface of the opening and closing mechanism. When the stirring mechanism rotates in the opposite direction, the stirring mechanism presses the opening and closing mechanism and opens the opening and closing mechanism. The stirring mechanism is provided with a round rod, a rotating plate, an elastic strip and a fixed rod. The fixed rod is arranged around the outside of the round rod and is vertically connected to the motor output end through the round rod. The two sides of the elastic strip are respectively attached to the side of the fixed rod and the side of the rotating plate. The rotating plate moves and rotates on the side of the fixed rod. When the rotating plate is in a horizontal state, the elasticity of the elastic strip causes the rotating plate to abut against the surface of the opening and closing mechanism. The opening and closing mechanism includes a rubber strip, an opening and closing plate, a rotating rod, and a flat panel. The rotating rod has a spring inside and is located inside the opening and closing plate. Both ends of the rotating rod are fixed inside the flat panel. The opening and closing plate rotates elastically downwards through the spring inside the rotating rod. The rubber strip is attached between the opening and closing plate and the flat panel. When the rotating plate rotates in the opposite direction on the surface of the flat panel, the top of the rotating plate presses down on the opening and closing plate.

2. The automatic fly ash dispersion device according to claim 1, characterized in that, The supporting mechanism includes a surrounding plate, sliding rods, a fixed plate, a glass slide, and a vertical plate. The fixed plate has a glass slide corresponding to the area below the microscope in the middle. The upper end of the fixed plate is provided with a surrounding plate. The vertical plate is located at the lower end of the fixed plate. The vertical plate has symmetrically distributed sliding rods on its side, and the sliding rods move in the middle of the slide rail by being pushed by a hydraulic device.

3. The automatic fly ash dispersion device according to claim 2, characterized in that, The sliding rod is provided with a rubber sleeve, an arc plate and a connecting rod. The rubber sleeve is attached to the outside of the connecting rod. Arc plates are symmetrically arranged on the upper and lower sides of the rubber sleeve. The inner side of the slide rail is provided with semi-circular strips, which are evenly distributed. When the hydraulic device pushes the rubber sleeve to move, the arc plate moves in a vibrating manner on the semi-circular strips under the elastic compression of the rubber sleeve, and the connecting rod drives the fixed plate at the upper end of the vertical plate to vibrate.

Images