Processing mechanism for matte glitter powder treatment
The surface of the green onion powder is extruded and rubbed through the stirrer and silica powder, forming irregular long dents. Combined with vibration screening, the problem of single matte effect on the surface of the green onion powder is solved, and the visual layered matte effect and efficient automatic screening are achieved.
Patent Information
- Application Number
- CN202521000423.3
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2025-05-21
- Publication Date
- 2025-07-29
- Estimated Expiration
- 2035-05-21
AI Technical Summary
The existing surface processing method of green onion powder cannot produce a matte effect with visual layering, and cannot meet the needs of high-end decoration for unique textures.
The stirring device and the finished screening device are used to extrude and rub the surface of the green onion powder through the agitator and silica powder to form irregular long dents, and automatic screening is achieved with vibration screening to obtain a matte effect with visual layering.
The visual layering and matte effect of the finished product of glans powder is achieved to enhance the uniqueness of the decoration and improve processing efficiency.
Smart Images
Figure CN223159151U_ABST
Abstract
Description
Technical Field
[0001] The utility model relates to a glitters production device, in particular to a processing mechanism for matte glitters treatment. Background Art
[0002] Glitters are also called flash powder, and those with larger particle sizes are also called glitter flakes (or flash flakes). They are usually made by precisely cutting a film material with a very high brightness and a metal coating (also called the glitter substrate). Glitters with particle sizes ranging from 0.004 mm to 3.0 mm can be produced. The shapes of glitters include quadrilateral, hexagonal, rectangular, etc. Their colors include various single colors such as gold, silver, green, purple, blue, etc., as well as color types with iridescent effects such as iridescent color, pearlescent color, and laser. Glitters are mainly used for surface decoration of articles.
[0003] At present, the film material used to make ordinary glitters generally uses a PET transparent film as the substrate. An aluminized layer is formed on the surface of the PET transparent film through vacuum aluminizing to make a PET aluminized film with a reflective effect. Then, the gravure printing technology is used to coat and print color layers on both sides of the PET aluminized film to make it have various colors. After that, through processes such as slitting, powder cutting, and powder screening, the glitter finished product is made, and finally it is packaged and shipped. The appearance effect of this ordinary glitter is mainly based on a gloss effect.
[0004] In order to make the surface of the glitters have a matte effect, currently, generally, adding a matting powder (silica) to the ink used in gravure printing or directly selecting a matte PET base film is adopted to make the glitters have a matte appearance effect. However, the matte effect produced on the surface of the glitters by this processing method is single and lacks visual hierarchy, and it cannot meet the requirements for unique textures in high-end decoration. Based on this, the applicant wants to design a processing device that can process the surface of the glitters to make it produce a matte effect with visual hierarchy, thereby enhancing its decorative uniqueness. Summary of the Utility Model
[0005] The technical problem to be solved by the utility model is to provide a processing mechanism for matte glitters treatment. This processing mechanism can automatically complete the processing of the surface of the glitters to obtain a glitter finished product with a matte effect having visual hierarchy, and can realize the automatic screening of the glitter finished product, which is beneficial to improving work efficiency. The adopted technical solution is as follows:
[0006] A processing mechanism for matte glitter powder processing, characterized in that it includes a frame, a stirring device and a finished product screening device; the stirring device includes a stirring barrel, an agitator and a stirring motor, the stirring barrel is installed on the frame, the stirring motor is installed on the frame or the stirring barrel, the agitator is rotatably installed in the inner cavity of the stirring barrel and is transmission-connected to the stirring motor, the top of the stirring barrel is provided with a feed port, the bottom of the stirring barrel is provided with a discharge port, the stirring device also includes a discharge port switch control mechanism capable of controlling the discharge port of the stirring barrel to open or close; the finished product screening device includes a screening plate, a vibration frame and a vibrator for driving the vibration frame to vibrate, the vibrator is installed on the frame, the screening plate is installed on the vibration frame and is located directly below the discharge port of the stirring barrel, and the screening plate has multiple sieve holes.
[0007] The size of each sieve hole on the above-mentioned sieve plate can be determined according to the size of the finished glitter powder to be collected. The size of the sieve hole is usually slightly smaller than the size of the finished glitter powder, and slightly larger than the size of the silica powder.
[0008] During operation, the discharge port of the mixing barrel can be controlled to be in a closed state through the discharge port switch control mechanism, and then glitter powder and silica powder are added into the inner cavity of the mixing barrel through the feed port; then, the stirring motor drives the stirrer to rotate continuously in the inner cavity of the mixing barrel, and the stirrer is used to stir the glitter powder and silica powder in the mixing barrel, and the silica powder is used to squeeze and rub the surface of the glitter powder to form a plurality of long strips of indentations on the surface of the glitter powder to obtain the finished glitter powder; since the relative movement direction, scraping force, etc. between the silica powder and the glitter powder are different during the stirring process, the plurality of long strips of indentations formed are usually irregularly arranged, and their The depth, width, and length are all inconsistent, giving the finished glitter a matte effect with a sense of visual layering, thereby enhancing its decorative uniqueness and facilitating processing. Subsequently, the discharge port switch mechanism opens the discharge port at the bottom of the mixing barrel, allowing the finished glitter and silica powder to fall from the discharge port onto the sieve plate. Subsequently, the vibrator drives the vibration frame and sieve plate to vibrate. Under the action of the sieve plate, the silica powder passes through the sieve holes on the sieve plate and falls into the container placed directly below the sieve plate. The finished glitter cannot pass through the sieve holes and remains on the sieve plate, thus achieving automatic screening of the finished glitter and silica powder, ultimately obtaining a finished glitter with a well-treated surface. The silica powder collected in the container can be added to the mixing barrel in the next round of processing for reuse.
[0009] As a preferred embodiment of the present utility model, the stirrer includes a stirring shaft and a stirring frame. The stirring shaft is rotatably installed in the inner cavity of the stirring barrel and is vertically oriented. The upper end of the stirring shaft is in driving connection with the output shaft of the stirring motor, and the stirring frame is fixedly installed on the stirring shaft. During operation, the stirring motor drives the stirring shaft and the stirring frame to rotate, and the stirring frame is used to stir and process the glitter powder and silica powder in the stirring barrel.
[0010] As a further preferred embodiment of the present utility model, a plurality of friction strips arranged along the inner circumferential direction are provided on the inner wall of the stirring barrel; each friction strip cooperates with the stirring frame. During the stirring process, each friction strip can cooperate with the rotating stirring frame, which is conducive to applying extrusion and friction to the glitter powder and silica powder in the stirring barrel.
[0011] As a preferred embodiment of the present utility model, the screening plate is detachably installed on the vibrating frame. After the screening of the glitter powder finished product and silica powder is completed, the screening plate can be removed from the vibrating frame. After pouring out the glitter powder finished product in the screening plate, the screening plate can be reinstalled on the vibrating frame.
[0012] As a preferred embodiment of the present utility model, the screening plate includes a screening board and an annular retaining wall. The screening board is installed at the lower end of the annular retaining wall, and a plurality of the screening holes are provided on the screening board. The screening board and the annular retaining wall jointly enclose the inner cavity of the screening plate. During operation, the glitter powder finished product and silica powder fall onto the screening board from the annular retaining wall of the screening plate after passing through the discharge port.
[0013] As a further preferred embodiment of the present utility model, the inner cavity of the annular retaining wall gradually becomes larger from its lower end to its upper end; the discharge port of the stirring barrel is located inside the upper end opening of the annular retaining wall. This can ensure that after the silica powder and the glitter powder finished product come out of the discharge port of the stirring barrel, they can smoothly enter the inner cavity of the screening plate.
[0014] As a further preferred embodiment of the present utility model, one side part of the screening board is hinged to the lower end part of the annular retaining wall, and the other side part of the screening board is connected to the lower end part of the annular retaining wall through a locking device. After the screening of the glitter powder finished product and silica powder is completed, the locking device can be unlocked, and the screening board can be turned downward and swung around its hinge with the annular retaining wall, which is conducive to pouring out the glitter powder finished product on the screening board, and then the screening board can be reinstalled on the lower end part of the annular retaining wall through the locking device.
[0015] As a preferred embodiment of the present utility model, the discharge port switch control mechanism includes a switch valve, and the switch valve is installed at the discharge port at the bottom of the stirring barrel. With this structure, the opening or closing of the discharge port at the bottom of the stirring barrel can be controlled by opening or closing the switch valve.
[0016] As another preferred embodiment of the present invention, the discharge port opening and closing control mechanism includes a movable baffle, a horizontal guide rail, and a cylinder. The horizontal guide rail is disposed at the discharge port at the bottom of the mixing drum. The movable baffle is mounted on the horizontal guide rail and slidably engages with the horizontal guide rail. The cylinder body is fixedly mounted on the mixing drum, and the cylinder piston rod extends horizontally and is fixedly connected to the movable baffle. With this structure, the movable baffle can be driven to reciprocate on the horizontal guide rail by the extension and contraction of the cylinder piston rod. The opening and closing of the discharge port at the bottom of the mixing drum can be controlled by switching the position of the movable baffle.
[0017] Compared with the prior art, the utility model has the following advantages:
[0018] This processing mechanism can use silica powder to squeeze and rub the surface of the glitter powder through stirring. During the stirring process, the relative movement direction and scraping force between the silica powder and the glitter powder are different, forming long strip-shaped indentations with inconsistent depth, width and length on the surface of the glitter powder. This makes the finished glitter powder have a matte effect with a visual sense of layering, which can enhance its decorative uniqueness. After the processing is completed, the finished glitter powder can be automatically screened. The operation is simple and convenient, which is conducive to improving work efficiency. BRIEF DESCRIPTION OF THE DRAWINGS
[0019] Figure 1 It is a structural diagram of the processing mechanism of the preferred embodiment of the utility model.
[0020] Figure 2 yes Figure 1 Schematic diagram of the structure of the finished glitter powder product processed by the processing mechanism shown. DETAILED DESCRIPTION
[0021] like Figure 1 - Figure 2 As shown, the processing mechanism for matte glitter powder treatment includes a frame 1, a stirring device 2 and a finished product screening device 3; the stirring device 2 includes a stirring barrel 21, an agitator 22, a stirring motor 23 and a switch valve 24, the stirring barrel 21 is installed on the frame 1, the stirring motor 23 is installed on the top of the stirring barrel 21, the agitator 22 is rotatably installed in the inner cavity of the stirring barrel 21 and is transmission-connected to the stirring motor 23, the top of the stirring barrel 21 is provided with a feed port 2101, the bottom of the stirring barrel 21 is provided with a discharge port 2102, and the switch valve 24 is installed at the discharge port 2102 of the stirring barrel 21; the finished product screening device 3 includes a vibration frame 31, a screening plate 32 and a vibrator 33 for driving the vibration frame 31 to vibrate, the vibrator 33 is installed on the frame 1, the screening plate 32 is installed on the vibration frame 31 and is directly below the discharge port 2102 of the stirring barrel 21, and the screening plate 32 has a plurality of sieve holes 3201.
[0022] In this embodiment, the stirrer 22 includes a stirring shaft 221 and a stirring frame 222. The stirring shaft 221 is rotatably installed in the inner cavity of the stirring barrel 21 and extends vertically. The upper end of the stirring shaft 221 is in driving connection with the output shaft of the stirring motor 23, and the stirring frame 222 is fixedly installed on the stirring shaft 221. A plurality of friction strips 25 arranged along the inner circumference are provided on the inner wall of the stirring barrel 21. During operation, the stirring motor 23 drives the stirring shaft 221 and the stirring frame 222 to rotate, and the stirring frame 222 is used to stir and process the glitter powder and silica powder in the stirring barrel 21. During the stirring process, each friction strip 25 can cooperate with the rotating stirring frame 222, which is conducive to applying extrusion and friction to the glitter powder and silica powder in the stirring barrel 21.
[0023] In this embodiment, the screening plate 32 includes a screening board 321 and an annular retaining wall 322. The inner cavity of the annular retaining wall 322 gradually becomes larger from its lower end to its upper end. The screening board 321 is installed at the lower end of the annular retaining wall 322. One side of the screening board 321 is hinged to the lower end of the annular retaining wall 322, and the other side of the screening board 321 is connected to the lower end of the annular retaining wall 322 through a lock 323. A plurality of screening holes 3201 are provided on the screening board 321. The discharge port 2102 of the stirring barrel 21 is located inside the upper opening of the annular retaining wall 322. The screening board 321 and the annular retaining wall 322 together enclose the inner cavity of the screening plate 32. This can ensure that after the silica powder and the finished glitter powder 100 come out of the discharge port 2102 of the stirring barrel 21, they can smoothly enter the inner cavity of the screening plate 32. After the screening of the finished glitter powder 100 and the silica powder is completed, the lock 323 can be unlocked, and the screening board 321 can be turned downward and swung around its hinge with the annular retaining wall 322, which is conducive to pouring out the finished glitter powder 100 on the screening board 321, and then the screening board 321 can be reinstalled on the lower end of the annular retaining wall 322 through the lock 323.
[0024] The working principle of this processing mechanism for matte glitter powder is briefly described below:
[0025] During operation, the discharge port 2102 of the mixing barrel 21 can be closed by the switching valve 24, and then the glitter powder and the silica powder are added into the inner cavity of the mixing barrel 21 through the feed port 2101. Subsequently, the agitator 22 is driven by the mixing motor 23 to continuously rotate in the inner cavity of the mixing barrel 21. The agitator 22 is used to mix and process the glitter powder and the silica powder in the mixing barrel 21. The silica powder is used to extrude and rub the surface of the glitter powder, and multiple long-strip-shaped indentations 101 are formed on the surface of the glitter powder to obtain the finished glitter powder 100. Since the relative movement direction, scratching force, etc. between the silica powder and the glitter powder are different during the mixing process, the multiple long-strip-shaped indentations 101 formed are irregularly arranged, and their depths, widths, and lengths are inconsistent, resulting in a matte effect with a visual sense of hierarchy for the finished glitter powder 100, thereby enhancing its decorative uniqueness. Subsequently, the discharge port 2102 at the bottom of the mixing barrel 21 is opened through the switching valve 24, so that the finished glitter powder 100 and the silica powder fall onto the screening plate 32. Subsequently, the vibrator 33 drives the vibrating frame 31 and the screening plate 32 to vibrate. Under the action of the screening plate 32, the silica powder passes through the respective sieve holes 3201 on the screening plate 32 and falls into the material receiving container placed directly below the screening plate 32, while the finished glitter powder 100 cannot pass through the respective sieve holes 3201 and remains on the screening plate 32, thereby realizing the automatic screening of the finished glitter powder 100 and the silica powder, and finally obtaining the finished glitter powder 100 with a good surface treatment. The silica powder collected by the material receiving container can be added to the mixing barrel 21 during the next round of processing to achieve reuse.
[0026] In addition, it should be noted that for the specific embodiments described in this specification, the names of their respective parts and the like can be different. Any equivalent or simple changes made according to the structure, features, and principles of the inventive concept of the present utility model patent are included within the protection scope of the present utility model patent. Those skilled in the technical field to which the present utility model belongs can make various modifications, supplements, or use similar methods to replace the specific embodiments described as long as they do not deviate from the structure of the present utility model or exceed the scope defined by this claim book, and they should all belong to the protection scope of the present utility model.
Claims
1. A processing mechanism for matte glitters, characterized in that: It includes a frame, a stirring device and a finished product screening device; the stirring device includes a stirring barrel, a stirrer and a stirring motor. The stirring barrel is installed on the frame, the stirring motor is installed on the frame or the stirring barrel, the stirrer is rotatably installed in the inner cavity of the stirring barrel and is in transmission connection with the stirring motor. The top of the stirring barrel is provided with a feed inlet, and the bottom of the stirring barrel is provided with a discharge outlet. The stirring device further includes a discharge outlet switch control mechanism capable of controlling the opening or closing of the discharge outlet of the stirring barrel; the finished product screening device includes a screening plate, a vibrating frame and a vibrator for driving the vibrating frame to vibrate. The vibrator is installed on the frame, the screening plate is installed on the vibrating frame and is directly below the discharge outlet of the stirring barrel, and the screening plate has a plurality of screening holes.
2. The processing mechanism for matte glitter powder treatment according to claim 1, wherein: The stirrer includes a stirring shaft and a stirring frame. The stirring shaft is rotatably installed in the inner cavity of the stirring barrel and is vertically oriented. The upper end of the stirring shaft is in transmission connection with the output shaft of the stirring motor, and the stirring frame is fixedly installed on the stirring shaft.
3. A processing mechanism for matte glitter powder treatment according to claim 2, characterized in that: A plurality of friction strips arranged along the inner circumferential direction are provided on the inner wall of the stirring barrel; each friction strip cooperates with the stirring frame.
4. A processing mechanism for matte glitter powder treatment according to claim 1, characterized in that: The screening plate is detachably installed on the vibrating frame.
5. A processing mechanism for matte glitter powder treatment according to claim 1, characterized in that: The screening plate includes a screening board and an annular retaining wall. The screening board is installed at the lower end of the annular retaining wall, and a plurality of the screening holes are provided on the screening board.
6. The processing mechanism for matte glitter powder treatment according to claim 5, characterized in that: The inner cavity of the annular retaining wall gradually becomes larger from its lower end to its upper end; the discharge outlet of the stirring barrel is located inside the upper end opening of the annular retaining wall.
7. A processing mechanism for matte glitter powder treatment according to claim 5, characterized in that: One side part of the screening board is hinged to the lower end part of the annular retaining wall, and the other side part of the screening board is connected to the lower end part of the annular retaining wall through a locking device.
8. A processing mechanism for matte sequin powder treatment according to any one of claims 1-7, characterized in that: The discharge outlet switch control mechanism includes a switching valve, and the switching valve is installed at the discharge outlet at the bottom of the stirring barrel.
9. A processing mechanism for matte glitter powder treatment according to any one of claims 1-7, characterized in that: The discharge outlet switch control mechanism includes a movable baffle, a horizontal guide rail and a cylinder. The horizontal guide rail is provided at the discharge outlet at the bottom of the stirring barrel. The movable baffle is installed on the horizontal guide rail and is in sliding fit with the horizontal guide rail. The cylinder block of the cylinder is fixedly installed on the stirring barrel, and the piston rod of the cylinder is horizontally oriented and fixedly connected to the movable baffle.