Sand-type ink grinding device

Abstract

This utility model relates to a sand-type ink grinding device, belonging to the technical field of sand mills. The motor is installed inside the base, and the casing is horizontally mounted on the base via a flange. A first, second, and third grinding roller are coaxially fixedly installed from the inside out to form a multi-stage grinding roller system. Each of the first, second, and third grinding rollers has a filter screen with progressively smaller mesh sizes. A rotating shaft is coaxial with and passes through the multi-stage grinding rollers, and is also coaxial with and installed inside the casing. A feeding chamber is located at the front end of the casing, and a feeding pipe is located at the front end of the first grinding roller. The feeding pipe has a feed inlet and is rotatably sealed to the side walls of the feeding chamber. A feeding pipe is located at the top of the feeding chamber, and a discharge pipe is located at the bottom of the casing. This design ensures sufficient agitation of the grinding zirconium beads, guaranteeing grinding efficiency. It enables multiple grinding, filtering, grading, and re-grinding of the ink, thereby improving the grinding effect and efficiency.

Description

Technical Field

[0001] This utility model belongs to the field of sand mill technology, specifically relating to a sand-type ink grinding device. Background Technology

[0002] Horizontal sand mills are high-efficiency wet ultra-fine grinding and dispersing machines widely used in non-metallic mineral industries such as coatings, paints, and inks. Existing sand mills use a stirring rod to agitate the grinding zirconium beads inside, causing them to rotate and impact, thereby grinding the ink. However, the existing technology uses a stirring rod to agitate the grinding tank, but there are dead zones within the grinding tank. This causes the grinding zirconium beads and ink to adhere to the dead zones at the bottom of the grinding tank, often resulting in insufficient grinding, low grinding efficiency, and problems with the adhered ink not being ground or removed in time. Summary of the Invention

[0003] To overcome the problems in the prior art where stirring with a stirring rod creates dead zones within the grinding jar, causing grinding zirconium beads and ink to adhere to these dead zones at the bottom of the grinding jar, resulting in insufficient grinding, low grinding efficiency, and the inability to grind or remove the adhered ink in a timely manner, this utility model provides a sand-type ink grinding device. It achieves sand grinding of the ink by rotating multi-stage grinding drums to tumble and agitate the material and grinding zirconium beads. The rotating drums constantly tumble the grinding zirconium beads, and the bottom portion of the drum is constantly changing, effectively preventing the grinding zirconium beads and ink from concentrating and adhering to the bottom of the drum, ensuring timely removal of the ground ink, and guaranteeing sufficient agitation of the grinding zirconium beads and grinding efficiency. The first grinding drum 4, the second grinding drum 5, and the third grinding drum 6, installed coaxially, perform multiple grinding, filtering, grading, and re-grinding processes on the ink, thereby improving the grinding effect and efficiency.

[0004] To achieve the above objectives, this utility model is implemented through the following technical solution: A sand-type ink grinding device mainly includes a base 1, a motor 2, a rotating shaft 3, a first grinding roller 4, a second grinding roller 5, a third grinding roller 6, and a housing 7. The motor 2 is installed inside the base 1, and the housing 7 is horizontally installed on the base 1 via a flange. The first grinding roller 4, the second grinding roller 5, and the third grinding roller 6 are coaxially fixedly installed from the inside out to form a multi-stage grinding roller. The first grinding roller 4, the second grinding roller 5, and the third grinding roller 6 are respectively provided with sieve holes of progressively smaller size. The rotating shaft 3... The rotating shaft 3 is coaxial with and through the multi-stage grinding rollers and is fixedly installed. The rotating shaft 3 is coaxial with the housing 7 and installed inside the housing 7. The rotating shaft 3 is connected to the motor 2 for transmission. The front end of the housing 7 is provided with a feeding chamber 71. The front end of the first grinding roller 4 is provided with a feeding pipe 41. The feeding pipe 41 is provided with a feeding port. The feeding pipe 41 is rotatably and sealed to the two side walls of the feeding chamber 71. The top of the feeding chamber 71 is provided with a feeding pipe 72. The bottom end of the housing 7 is provided with a discharge pipe 73. A filter screen 42 is installed between the feeding pipe 41 and the first grinding roller 4. The first grinding roller 4, the second grinding roller 5 and the third grinding roller 6 are all filled with grinding zirconium beads.

[0005] Furthermore, the end cap 11 that is easy to open is installed at the end of the multi-stage grinding roller.

[0006] Furthermore, the first grinding roller 4, the second grinding roller 5, and the third grinding roller 6 have the same structure, each including a roller 12 and a screen roller 13. The roller 12 is evenly provided with mesh holes 14, and the screen roller 13 is installed inside the roller 1214, which is closely attached to the inner wall of the roller 12.

[0007] Furthermore, the end of the housing 7 is provided with a tail cover 74 that is easy to open, and a bearing seat 75 is provided inside the tail cover 74. The end of the rotating shaft 3 is installed in the bearing seat 75 through a bearing.

[0008] The beneficial effects of this utility model are:

[0009] This invention utilizes the rotation of multi-stage grinding drums to tumble and agitate materials and zirconium beads, achieving the sanding of ink. The rotating drums constantly tumble the zirconium beads, with the bottom portion of the drum constantly changing, effectively preventing the zirconium beads and ink from concentrating and adhering to the bottom of the drum. This ensures timely discharge of the ground ink, sufficient agitation of the zirconium beads, and guaranteed grinding efficiency. Furthermore, the coaxially mounted first, second, and third grinding drums perform multiple grinding, filtering, grading, and re-grinding processes on the ink, thereby improving the grinding effect and efficiency. Attached Figure Description

[0010] Figure 1 This is a three-dimensional cross-sectional view of the present invention.

[0011] Figure 2 This is a three-dimensional schematic diagram of the present invention.

[0012] Figure 3 This is a partial cross-sectional structural diagram of the present invention.

[0013] Figure 4 This is a three-dimensional schematic diagram of the rotating shaft, the first grinding roller, the second grinding roller, the third grinding roller, and the housing of this utility model.

[0014] Figure 5 This is a three-dimensional schematic diagram of the rotating shaft, the first grinding roller, the second grinding roller, and the third grinding roller of this utility model. Detailed Implementation

[0015] To make the objectives, technical solutions, and beneficial effects of this utility model clearer, the preferred embodiments of this utility model will be described in detail below with reference to the accompanying drawings, so as to facilitate the understanding of those skilled in the art.

[0016] This utility model discloses a sand-type ink grinding device, which mainly includes a base 1, a motor 2, a rotating shaft 3, a first grinding roller 4, a second grinding roller 5, a third grinding roller 6, and a housing 7. The motor 2 is installed inside the base 1, and the housing 7 is horizontally mounted on the base 1 via a flange. The first grinding roller 4, the second grinding roller 5, and the third grinding roller 6 are coaxially fixedly installed from the inside to the outside to form a multi-stage grinding roller. The first grinding roller 4, the second grinding roller 5, and the third grinding roller 6 are respectively provided with sieve holes of progressively smaller size. The rotating shaft 3 is connected to the multi-stage grinding rollers. The rotating shaft 3 is coaxially and through-mounted with the housing 7 and installed inside the housing 7. The rotating shaft 3 is connected to the motor 2 for transmission. The front end of the housing 7 is provided with a feeding chamber 71. The front end of the first grinding roller 4 is provided with a feeding pipe 41. The feeding pipe 41 is provided with a feeding port. The feeding pipe 41 is rotatably and sealed to the two side walls of the feeding chamber 71. The top of the feeding chamber 71 is provided with a feeding pipe 72. The bottom end of the housing 7 is provided with a discharge pipe 73. A filter screen 42 is installed between the feeding pipe 41 and the first grinding roller 4 to prevent the grinding zirconium beads from entering the feeding pipe 41. The first grinding roller 4, the second grinding roller 5, and the third grinding roller are also provided. The cylinder 6 is filled with grinding zirconium beads. Ink is fed in through the feed pipe 72, passing sequentially through the feed chamber 71, the feed inlet, and the feed pipe 41 before entering the first grinding drum 4 for primary grinding. Simultaneously, as the first grinding drum 4 rotates, the ground ink passes through its sieve holes into the second grinding drum 5 for secondary grinding. As secondary grinding progresses, the ground ink passes through its sieve holes into the third grinding drum 6 for tertiary grinding. Finally, the ink that has passed tertiary grinding passes through its sieve holes into the machine casing 7. The ink is collected through the discharge pipe 73; the material and grinding zirconium beads are tumbled and agitated by the rotation of multi-stage grinding drums to achieve sand grinding; the grinding zirconium beads are tumbled by the rotating drums, and the bottom part of the drum is constantly changing, which can effectively prevent the grinding zirconium beads and ink from concentrating and adhering to the bottom of the drum, ensuring that the ground ink is discharged in time, ensuring that the grinding zirconium beads are fully agitated, and ensuring grinding efficiency; the ink is ground, filtered, graded and re-ground multiple times by the first grinding drum 4, the second grinding drum 5 and the third grinding drum 6 installed on the same axis, thereby improving the grinding effect and grinding efficiency.

[0017] In this embodiment, the end of the multi-stage grinding roller is equipped with an end cap 11 that is easy to open, through which the grinding zircon beads inside can be cleaned, replaced, and inspected.

[0018] In this embodiment, the first grinding roller 4, the second grinding roller 5, and the third grinding roller 6 have the same structure, each including a roller 12 and a screen roller 13. The roller 12 is evenly provided with mesh holes 14, and the screen roller 13 is installed inside the roller 1214 and is close to the inner wall of the roller 12. The roller 12 provides support for the screen roller 13, effectively extending the service life of the screen roller 13.

[0019] In this embodiment, the end of the housing 7 is provided with a tail cover 74 that is easy to open. The inner side of the tail cover 74 is provided with a bearing seat 75. The end of the rotating shaft 3 is installed in the bearing seat 75 through a bearing. The bearing seat 75 supports the end of the rotating shaft 3, effectively reducing shaft runout, ensuring stable operation of the equipment, and helping to extend the service life of the equipment.

[0020] Work process:

[0021] Ink is fed in through feed pipe 72, passing sequentially through feed chamber 71, feed inlet, and feed pipe 41 before entering the first grinding drum 4 for primary grinding. Simultaneously, as the first grinding drum 4 rotates, the ground ink passes through its sieve holes to the second grinding drum 5 for secondary grinding. As secondary grinding progresses, the ground ink passes through its sieve holes to the third grinding drum 6 for tertiary grinding. Finally, the ink that has passed tertiary grinding passes through its sieve holes into the machine casing 7 and exits through the discharge pipe. 73. Collection is carried out; the material and grinding zirconium beads are tumbled and stirred by the rotation of multi-stage grinding drums to achieve sand grinding of ink; the grinding zirconium beads are tumbled by the rotating drums, and the bottom part of the drum is constantly changing, which can effectively prevent the grinding zirconium beads and ink from concentrating and adhering to the bottom of the drum, ensuring that the ground ink is discharged in time, ensuring that the grinding zirconium beads are fully stirred, and ensuring grinding efficiency; the ink is ground, filtered, graded and re-ground multiple times by the first grinding drum 4, the second grinding drum 5 and the third grinding drum 6 installed on the same axis, thereby improving the grinding effect and grinding efficiency.

[0022] Finally, it should be noted that the above preferred embodiments are only used to illustrate the technical solution of this utility model and are not intended to limit it. Although the utility model has been described in detail through the above preferred embodiments, those skilled in the art should understand that various changes can be made to it in form and detail without departing from the scope defined by the claims of this utility model.

Claims

1. A sand-type ink grinding device, characterized in that: The aforementioned sand-type ink grinding device includes a base (1), a motor (2), a rotating shaft (3), a first grinding roller (4), a second grinding roller (5), a third grinding roller (6), and a housing (7). The motor (2) is installed inside the base (1), and the housing (7) is installed laterally on the base (1) via a flange. The first grinding roller (4), the second grinding roller (5), and the third grinding roller (6) are coaxially fixedly installed from the inside to the outside to form a multi-stage grinding roller. The first grinding roller (4), the second grinding roller (5), and the third grinding roller (6) are respectively provided with sieve holes with progressively smaller filter mesh sizes. The rotating shaft (3) is coaxially installed and fixed through the multi-stage grinding rollers. The rotating shaft (3) is coaxial with the housing (7) and installed inside the housing (7). The rotating shaft (3) is connected to the motor (2) for transmission. The front end of the housing (7) is provided with a feeding chamber (71). The front end of the first grinding roller (4) is provided with a feeding pipe (41). The feeding pipe (41) is provided with a feeding port. The feeding pipe (41) and the two side walls of the feeding chamber (71) are rotatably sealed. The top of the feeding chamber (71) is provided with a feeding pipe (72). The bottom end of the housing (7) is provided with a discharge pipe (73). A filter screen (42) is installed between the feeding pipe (41) and the first grinding roller (4). The first grinding roller (4), the second grinding roller (5) and the third grinding roller (6) are all filled with grinding zirconium beads.

2. The sand-type ink grinding device as described in claim 1, characterized in that: The multi-stage grinding roller is equipped with an end cap (11) that is easy to open.

3. A sand-type ink grinding device as described in claim 1 or 2, characterized in that: The first grinding roller (4), the second grinding roller (5) and the third grinding roller (6) have the same structure, each including a roller (12) and a screen roller (13). The roller (12) is evenly provided with mesh holes (14), and the screen roller (13) is installed inside the roller (12) and (14) in close contact with the inner wall of the roller (12).

4. The sand-type ink grinding device as described in claim 3, characterized in that: The end of the housing (7) is provided with a tail cover (74) that is easy to open. The inner side of the tail cover (74) is provided with a bearing seat (75). The end of the rotating shaft (3) is installed in the bearing seat (75) through a bearing.

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