Ferrite tile grinding step device

Abstract

The application discloses a ferrite magnetic tile grinding step device, which comprises a box base, a grinding head motor and a vibrating disc, the vibrating disc is fixedly installed on the outer surface of the upper end of the box base, the grinding head motor is movably installed on the upper end of the box base and located at one side of the vibrating disc, and the grinding head motor and the box base are movably connected through a direction adjuster; two groups of grinding wheels are movably installed at the lower part of the grinding head motor, the two groups of grinding wheels are arranged in an upper-lower side-by-side mode, a tooling part for fixing the magnetic tile is installed on one side of the upper end of the box base, a rotating table is splicedly installed at the lower part of the tooling part, and the lower end of the rotating table is driven through a rotating motor; a material conveying track is arranged between the vibrating disc and the tooling part; the ferrite magnetic tile grinding step device can automatically complete the grinding of special-shaped magnetic tiles, can be flexibly applied to magnetic tile structures with different lengths, can be arbitrarily adjusted according to the grinding thickness and height of the magnetic tile, and has a mechanical automatic unloading structure, so that the stability is improved.

Description

Technical Field

[0001] This invention belongs to the field of magnetic tile processing technology, and more specifically, it is a ferrite magnetic tile grinding step equipment. Background Technology

[0002] Magnet tiles are mainly used in permanent magnet DC motors. Unlike electromagnetic motors, which generate a magnetomotive force source through excitation coils, permanent magnet motors generate a constant magnetomotive force source using permanent magnet materials. Replacing electrical excitation with permanent magnet tiles offers many advantages, including simpler motor structure, easier maintenance, lighter weight, smaller size, higher reliability, less copper usage, lower copper consumption, and lower energy consumption. Magnet tiles come in various shapes to suit different needs.

[0003] Patent document CN115026661A discloses a grinding equipment for producing and processing tile-shaped magnets, relating to the field of magnetic tile processing. It includes a conveying mechanism with side grinding mechanisms on its left and right sides, arc-shaped grinding mechanisms on its upper and lower sides, end-face grinding mechanisms at both ends, and loading / unloading wheels with loading / unloading grooves at both ends. The side grinding mechanisms on the left and right sides, the arc-shaped grinding mechanisms on the upper and lower sides, and the end-face grinding mechanisms at both ends enable the magnetic tiles to be ground in one pass during transport on the conveying mechanism, thus improving the processing efficiency of magnetic tiles.

[0004] Traditional magnetic tile grinding equipment has certain shortcomings in use. Magnetic tiles come in many shapes, and existing equipment lacks the ability to process irregularly shaped magnetic tiles, failing to automatically complete the grinding operation and reducing processing efficiency. It also cannot flexibly install magnetic tiles of different lengths. Secondly, traditional magnetic tile grinding equipment has poor flexibility, unable to adjust arbitrarily according to the length of the magnetic tile and the grinding thickness, and lacks a bidirectional grinding adjustment structure, reducing its applicability and limiting it to processing only single-specification magnetic tile structures. Furthermore, traditional magnetic tile grinding equipment is prone to jamming. After a single magnetic tile is ground, it cannot promptly separate from the tooling, preventing subsequent magnetic tiles from being properly installed on the tooling, reducing the stability of the equipment, and it lacks a mechanical unloading structure. Summary of the Invention

[0005] The purpose of this invention is to provide a ferrite magnetic tile grinding step device that can solve the existing problems.

[0006] The problem solved by this invention is:

[0007] 1. There are many different shapes of magnetic tiles. The existing equipment does not have the ability to process irregularly shaped magnetic tiles and cannot automatically complete the grinding process of irregularly shaped magnetic tiles, which reduces the processing efficiency of irregularly shaped magnetic tiles. At the same time, it cannot flexibly install magnetic tiles of different lengths.

[0008] 2. Traditional magnetic tile grinding equipment has poor flexibility and cannot be arbitrarily adjusted according to the length of the magnetic tile and the grinding thickness. It does not have a two-way grinding adjustment structure, which reduces its applicability and makes it only able to process magnetic tile structures of a single specification.

[0009] 3. Traditional magnetic tile grinding equipment is prone to jamming during use. After a single magnetic tile has been ground, it cannot be separated from the tooling in time, making it impossible for subsequent magnetic tiles to be properly installed on the tooling. This reduces the stability of the magnetic tile grinding equipment and does not have a mechanical unloading structure.

[0010] The objective of this invention can be achieved through the following technical solutions:

[0011] A ferrite magnetic tile grinding step device includes a housing base, a grinding head motor, and a vibratory feeder. The vibratory feeder is fixedly installed on the upper outer surface of the housing base. The grinding head motor is movably installed on the upper end of the housing base, located on one side of the vibratory feeder. The grinding head motor and the housing base are movably connected by a steering mechanism. Two sets of grinding wheels are movably installed at the lower part of the grinding head motor, arranged side by side. A fixture for fixing the magnetic tile is installed on the upper end of the housing base, located on one side of the grinding wheels. A rotary table is spliced ​​and installed at the lower part of the fixture, and the lower end of the rotary table is driven by a rotary motor. A material conveying track is provided between the vibratory feeder and the fixture. The discharge end of the material conveying track is perpendicular to the upper part of the fixture. A discharge slide is installed on one side of the fixture, and a discharge component for separating the magnetic tile from the fixture is installed on the upper part of the discharge slide.

[0012] As a further technical solution of the present invention, the directional adjustment device includes a longitudinal slide and a transverse slide. The transverse slide is movably installed inside the longitudinal slide. The longitudinal slide and the housing base are slidably connected through a column. By using the longitudinal slide and the transverse slide, the grinding height and grinding thickness of the grinding wheel can be adjusted accordingly when the grinding wheel is grinding the magnetic tile.

[0013] As a further technical solution of the present invention, the longitudinal slide and the column are driven by a first lead screw, and the longitudinal slide and the transverse slide are driven by a second lead screw. Both the second lead screw and the first lead screw are provided with handwheels. By rotating the first lead screw, the user drives the longitudinal slide using the threaded structure, causing the longitudinal slide to move up and down along the column, thereby adjusting the grinding height of the grinding wheel. Then, by rotating the second lead screw, the user drives the transverse slide inside the longitudinal slide, thereby causing the transverse slide to move the grinding wheel horizontally and adjust the grinding position of the grinding wheel.

[0014] As a further technical solution of the present invention, a fixed bracket for mounting the grinding head motor is fixedly installed on one side of the transverse slide. A circular slot is provided in the middle of the fixed bracket. A control cabinet is installed at the rear end of the grinding head motor. The grinding head motor is fixedly mounted using the circular slot of the fixed bracket, so that the grinding head motor is fixed on one side of the transverse slide. When the longitudinal slide moves, the entire transverse slide is driven to complete the vertical adjustment of the grinding head motor. When the transverse slide moves, the grinding head motor is directly driven to move horizontally.

[0015] As a further technical solution of the present invention, a mounting base is fixedly installed on the upper end of the box base on one side of the tooling. The mounting base is provided with a first sensor and a second sensor for sensing the position of the magnetic tile on the tooling. The first sensor is located below the second sensor. When the magnetic tile is stuck on the tooling, the first sensor senses the tile and starts the rotary motor, which drives the rotary table to rotate the tooling, thereby causing the magnetic tile on the tooling to rotate and come into contact with the surface of the grinding wheel. The rotation of the grinding wheel is opposite to the rotation of the tooling, and the magnetic tile is ground. When the magnetic tile on the tooling is unloaded, the second sensor senses that there is no magnetic tile on the tooling, thereby controlling the tooling to stop rotating, which facilitates the subsequent installation of the magnetic tile.

[0016] As a further technical solution of the present invention, the tooling includes a docking base, a lower clamping base, and an upper clamping base. The upper clamping base is spliced ​​and installed on the upper part of the lower clamping base, and the docking base is fixedly installed on the lower part of the lower clamping base. By adjusting the distance between the lower clamping base and the upper clamping base, magnetic tiles of different lengths can be installed on the lower clamping base and the upper clamping base. The function of the docking base is to fix the spliced ​​tooling on the rotating table, so that the rotating table drives the tooling to rotate.

[0017] As a further technical solution of the present invention, both the lower card holder and the upper card holder are provided with an arc-shaped card groove on one side for engaging the magnetic tile. The middle parts of the lower card holder and the upper card holder are spliced ​​and fixed by splicing columns. By installing splicing columns of different lengths, the distance between the lower card holder and the upper card holder can be flexibly adjusted. The arc-shaped card groove allows the magnetic tile to be secured on one side of the lower card holder and the upper card holder.

[0018] As a further technical solution of the present invention, the discharge end of the conveying track is equipped with a discharge nozzle, and the inner side of the discharge nozzle is provided with an arc-shaped material groove. The arc-shaped material groove can correct the discharge angle of the magnetic tile, avoid misalignment between the magnetic tile and the tooling, and improve the installation accuracy of the magnetic tile.

[0019] As a further technical solution of the present invention, the material discharge component includes a fixed buckle and an outer sleeve rod. The outer sleeve rod is fixedly installed on the upper outer surface of the fixed buckle. A telescopic rod is movably installed on the upper part of the outer sleeve rod, and a material discharge clip is provided at the top of the telescopic rod. One end of the material discharge clip has a beveled structure. Due to the use of splicing columns, after the lower and upper card seats are assembled, an annular groove structure is formed at their joint. The material discharge clip can be inserted between the lower and upper card seats, and the material discharge operation of the magnetic tile is completed when the tooling rotates.

[0020] The beneficial effects of this invention are:

[0021] 1. By setting up a vibratory feeder and tooling, this ferrite magnet grinding step equipment can continuously complete the grinding operation of irregularly shaped ferrite magnets, improving the processing efficiency of irregularly shaped ferrite magnets. During operation, the product is first placed in the vibratory feeder, which then feeds the product into the conveyor track. The product enters the tooling through the conveyor track. By adding a discharge nozzle, the arc-shaped material groove can correct the discharge angle of the magnet, avoiding misalignment between the magnet and the tooling, thus ensuring the magnet... The magnetic tile is vertically inserted into the arc-shaped slot of the fixture. When the magnetic tile is secured on the fixture, the first sensor detects the installation and activates the rotary motor. The rotary motor drives the rotary table, which in turn rotates the fixture, causing the magnetic tile on the fixture to rotate. This brings the magnetic tile into contact with the surface of the grinding wheel. The grinding wheel rotates in the opposite direction to the fixture. The grinding head motor drives two grinding wheels to rotate, grinding the upper and lower parts of the magnetic tile, creating a stepped shape on both the upper and lower parts, as shown in the attached image. Figure 8 As shown, after the magnetic tile on the tooling is unloaded, the second sensor detects that the tooling is empty and has no magnetic tile, thus controlling the tooling to stop rotating. This allows the arc-shaped slot of the tooling to reconnect to the bottom of the feeding track, facilitating the installation of subsequent magnetic tiles. One rotation of the tooling completes the processing of one magnetic tile, and the process can be repeated continuously to process magnetic tiles.

[0022] Secondly, by adjusting the distance between the lower and upper card holders, magnetic tiles of different lengths can be installed on the lower and upper card holders. The function of the docking base is to fix the assembled tooling on the rotating table, so that the rotating table drives the tooling to rotate. During operation, by installing splicing columns of different lengths, the distance between the lower and upper card holders can be flexibly adjusted. The arc-shaped slot design allows the magnetic tile to be locked on one side of the lower and upper card holders, making it flexible to adapt to magnetic tile structures of different lengths.

[0023] 2. By setting an adjuster, the use of the grinding wheel can be optimized when using this ferrite magnetic tile grinding step equipment. The grinding wheel's position can be adjusted arbitrarily according to the grinding position on the magnetic tile surface, improving the flexibility of the equipment. During operation, the user rotates the first lead screw, which drives the longitudinal slide via a threaded structure, causing the longitudinal slide to move up and down along the column, thus adjusting the grinding height of the grinding wheel. Next, rotating the second lead screw drives the transverse slide inside the longitudinal slide, causing the transverse slide to move the grinding wheel horizontally, adjusting its grinding position so that it is in close contact with the magnetic tile surface. The grinding head motor is fixed in the circular slot of the fixed bracket, securing it to one side of the transverse slide. When the longitudinal slide moves, it drives the transverse slide, adjusting the vertical position of the grinding head motor. When the transverse slide moves, it directly drives the grinding head motor horizontally, completing the bidirectional adjustment of the grinding wheel.

[0024] 3. By setting up a discharge component, the use of tooling can be optimized when this ferrite magnetic tile grinding step equipment is used. The unloading operation of ferrite magnetic tiles can be automatically completed during the rotation of the tooling, avoiding the tooling from jamming and improving the stability of the equipment. During operation, because the tooling adopts the splicing column setting, the lower and upper clamps are assembled, and their joints form an annular groove structure, which allows the unloading clip to be engaged between the lower and upper clamps. When the rotary table drives the tooling to rotate one revolution, the unloading clip unloads the magnetic tile from the lower and upper clamps, allowing the magnetic tile to fall into the discharge slide and be discharged. Furthermore, the height of the unloading clip can be adjusted arbitrarily using the telescopic rod, making it suitable for various specifications of magnetic tile structures and giving it a mechanical automatic unloading structure. Attached Figure Description

[0025] The invention will now be further described with reference to the accompanying drawings.

[0026] Figure 1 This is a schematic diagram of the overall structure of a ferrite magnetic tile grinding step device according to the present invention;

[0027] Figure 2 This is an overall structural diagram of the grinding head motor in a ferrite magnetic tile grinding step device of the present invention;

[0028] Figure 3 This is an overall structural diagram of the orienter in a ferrite magnetic tile grinding step device of the present invention;

[0029] Figure 4 This is an overall structural diagram of the mounting base in a ferrite magnetic tile grinding step device of the present invention;

[0030] Figure 5 This is an overall structural diagram of the tooling components in a ferrite magnetic tile grinding step device of the present invention;

[0031] Figure 6 This is an internal structural diagram of the material feeding nozzle in a ferrite magnetic tile grinding step device of the present invention;

[0032] Figure 7 This is an overall structural diagram of the material discharge component in a ferrite magnetic tile grinding step device of the present invention;

[0033] Figure 8 This is an overall structural diagram of the ferrite magnetic tile to be processed in the ferrite magnetic tile grinding step equipment of the present invention.

[0034] In the diagram: 1. Box base; 2. Mounting seat; 3. Vibratory feeder; 4. Material conveying track; 5. Control cabinet; 6. Grinding head motor; 7. Directional switch; 8. Tooling; 9. Discharge slide; 10. Fixed bracket; 11. Longitudinal slide; 12. Transverse slide; 13. First lead screw; 14. Second lead screw; 15. Rotary table; 16. Rotary motor; 17. Unloading clamp; 18. First sensor; 19. Telescopic rod; 20. Second sensor; 21. Docking base; 22. Lower bracket; 23. Upper bracket; 24. Arc-shaped slot; 25. Splicing column; 26. Discharge nozzle; 27. Arc-shaped trough; 28. Discharge component; 29. ​​Fixed buckle; 30. Outer sleeve rod; 31. Grinding wheel. Detailed Implementation

[0035] To further illustrate the technical means and effects of the present invention in achieving its intended purpose, the following detailed description of the specific implementation methods, structures, features, and effects of the present invention, in conjunction with the accompanying drawings and preferred embodiments, is provided below.

[0036] like Figure 1 As shown, a ferrite magnetic tile grinding step device includes a housing base 1, a grinding head motor 6, and a vibratory plate 3. The vibratory plate 3 is fixedly installed on the upper outer surface of the housing base 1. The grinding head motor 6 is movably installed on the upper end of the housing base 1, located on one side of the vibratory plate 3. The grinding head motor 6 and the housing base 1 are movably connected by a reversing device 7. Two sets of grinding wheels 31 are movably installed on the lower part of the grinding head motor 6, arranged side by side. A tooling part 8 for fixing the magnetic tile is installed on the upper end of the housing base 1, located on one side of the grinding wheels 31. A rotary table 15 is spliced ​​and installed at the lower part of the fixture 8, and the lower end of the rotary table 15 is driven by a rotary motor 16; a material conveying track 4 is provided between the vibratory plate 3 and the fixture 8, the discharge end of the material conveying track 4 is perpendicular to the upper part of the fixture 8, a discharge slide 9 is installed on one side of the fixture 8, and a discharge component 28 for separating the magnetic tiles on the fixture 8 is installed on the upper part of the discharge slide 9. The magnetic tiles are not magnetic during the grinding operation. After the grinding operation is completed, the magnetic tiles are magnetized. Therefore, the magnetic tiles will not exhibit adsorption during the grinding process.

[0037] like Figure 2 As shown, the directional adjustment device 7 includes a longitudinal slide 11 and a transverse slide 12. The transverse slide 12 is movably installed inside the longitudinal slide 11. The longitudinal slide 11 and the housing base 1 are slidably connected through a column. Using the longitudinal slide 11 and the transverse slide 12, the grinding height and grinding thickness of the grinding wheel 31 can be adjusted accordingly when the grinding wheel 31 is grinding the magnetic tile.

[0038] The longitudinal slide 11 and the column are driven by a first lead screw 13, and the longitudinal slide 11 and the transverse slide 12 are driven by a second lead screw 14. Both the second lead screw 14 and the first lead screw 13 are equipped with handwheels. By rotating the first lead screw 13, the user drives the longitudinal slide 11 through the threaded structure, causing the longitudinal slide 11 to move up and down along the column, thereby adjusting the grinding height of the grinding wheel 31. Then, by rotating the second lead screw 14, the user drives the transverse slide 12 inside the longitudinal slide 11, thereby causing the transverse slide 12 to move the grinding wheel 31 horizontally, adjusting the grinding position of the grinding wheel 31.

[0039] like Figure 3 As shown, a fixed mounting bracket 10 for mounting the grinding head motor 6 is fixedly installed on one side of the transverse slide 12. A circular slot is provided in the middle of the fixed mounting bracket 10. A control cabinet 5 is installed at the rear end of the grinding head motor 6. The grinding head motor 6 is fixedly mounted using the circular slot of the fixed mounting bracket 10, so that the grinding head motor 6 is fixed on one side of the transverse slide 12. When the longitudinal slide 11 moves, it drives the transverse slide 12 as a whole to complete the vertical adjustment of the grinding head motor 6. When the transverse slide 12 moves, it directly drives the grinding head motor 6 to move horizontally.

[0040] like Figure 4 As shown, a mounting base 2 is fixedly installed on the upper end of the box base 1 on one side of the tooling 8. The mounting base 2 is equipped with a first sensor 18 and a second sensor 20 for sensing the position of the magnetic tile on the tooling 8. The first sensor 18 is located below the second sensor 20. When the magnetic tile is stuck on the tooling 8, the first sensor 18 senses the tile and starts the rotary motor 16, which drives the rotary table 15. The rotary table 15 drives the tooling 8 to rotate, thereby causing the magnetic tile on the tooling 8 to rotate and contact the surface of the grinding wheel 31. The grinding wheel 31 rotates in the opposite direction to the tooling 8, and performs a grinding operation on the magnetic tile. When the magnetic tile on the tooling 8 is unloaded, the second sensor 20 senses that there is no magnetic tile on the tooling 8, thereby controlling the tooling 8 to stop rotating, which facilitates the subsequent installation of the magnetic tile.

[0041] like Figure 5As shown, the tooling component 8 includes a docking base 21, a lower clamping base 22, and an upper clamping base 23. The upper clamping base 23 is spliced ​​and installed on the upper part of the lower clamping base 22, and the docking base 21 is fixedly installed on the lower part of the lower clamping base 22. By adjusting the distance between the lower clamping base 22 and the upper clamping base 23, magnetic tiles of different lengths can be installed on the lower clamping base 22 and the upper clamping base 23. The function of the docking base 21 is to fix the spliced ​​tooling component 8 on the rotary table 15, so that the rotary table 15 drives the tooling component 8 to rotate.

[0042] Both the lower card holder 22 and the upper card holder 23 have an arc-shaped slot 24 on one side for engaging the magnetic tile. The middle of the lower card holder 22 and the upper card holder 23 are spliced ​​and fixed by splicing column 25. By installing splicing columns 25 of different lengths, the distance between the lower card holder 22 and the upper card holder 23 can be flexibly adjusted. The arc-shaped slot 24 allows the magnetic tile to be secured on one side of the lower card holder 22 and the upper card holder 23.

[0043] like Figure 6 As shown, the discharge end of the material conveying track 4 is equipped with a discharge nozzle 26, and the inner side of the discharge nozzle 26 is provided with an arc-shaped material groove 27. The arc-shaped material groove 27 can correct the discharge angle of the magnetic tile, avoid misalignment between the magnetic tile and the tooling 8, and improve the installation accuracy of the magnetic tile.

[0044] like Figure 7 As shown, the material discharge component 28 includes a fixing buckle 29 and an outer sleeve rod 30. The outer sleeve rod 30 is fixedly installed on the upper outer surface of the fixing buckle 29. A telescopic rod 19 is movably installed on the upper part of the outer sleeve rod 30, and a material discharge clip 17 is provided at the top of the telescopic rod 19. One end of the material discharge clip 17 has a beveled structure. Due to the use of the splicing column 25, after the lower card seat 22 and the upper card seat 23 are assembled, an annular groove structure is formed at their joint. The material discharge clip 17 can be inserted between the lower card seat 22 and the upper card seat 23, and the material discharge operation of the magnetic tile is completed when the tooling component 8 rotates.

[0045] This ferrite magnetic tile grinding step equipment, by setting up a vibratory feeder 3 and tooling 8, allows for continuous grinding of irregularly shaped ferrite magnetic tiles, improving the processing efficiency. During operation, the product is first placed in the vibratory feeder 3, which then feeds it into the conveyor track 4. The product enters the tooling through the conveyor track 4. By adding a discharge nozzle 26, and utilizing its arc-shaped material groove 27, the discharge angle of the magnetic tile can be corrected, preventing misalignment between the magnetic tile and the tooling 8, thus ensuring the smooth grinding of the ferrite magnetic tile. The magnetic tile is vertically inserted into the arc-shaped slot 24 of the fixture 8. When the magnetic tile is secured on the fixture 8, the first sensor 18 detects the installation and activates the rotary motor 16. The rotary motor 16 drives the rotary table 15, which in turn rotates the fixture 8, causing the magnetic tile on the fixture 8 to rotate. This causes the magnetic tile to contact the surface of the grinding wheel 31. The grinding wheel 31 rotates in the opposite direction to the fixture 8. The grinding head motor 6 drives the two grinding wheels 31 to rotate, grinding the upper and lower parts of the magnetic tile, creating a stepped shape on both the upper and lower parts, as shown in the attached figure. Figure 8 As shown, after the magnetic tile on the tooling part 8 is unloaded, the second sensor 20 senses that the tooling part 8 is empty and has no magnetic tile, thereby controlling the tooling part 8 to stop rotating, so that the arc-shaped slot 24 of the tooling part 8 is re-connected to the bottom of the material conveying track 4, which facilitates the installation of subsequent magnetic tiles. The tooling part 8 rotates once, and the processing operation of one magnetic tile is completed. The magnetic tile processing can be carried out continuously by repeating the cycle.

[0046] Secondly, by adjusting the distance between the lower card holder 22 and the upper card holder 23, magnetic tiles of different lengths can be installed on the lower card holder 22 and the upper card holder 23. The function of the docking base 21 is to fix the spliced ​​tooling 8 on the rotating table 15, so that the rotating table 15 drives the tooling 8 to rotate. During operation, by installing splicing columns 25 of different lengths, the distance between the lower card holder 22 and the upper card holder 23 can be flexibly adjusted. The arc-shaped card slot 24 allows the magnetic tile to be stuck on one side of the lower card holder 22 and the upper card holder 23, making it flexible to adapt to magnetic tile structures of different lengths.

[0047] By setting the adjuster 7, the use of the grinding wheel 31 can be optimized when using the ferrite magnetic tile grinding step equipment. This allows for arbitrary adjustment of the grinding position of the grinding wheel 31 according to the grinding position on the magnetic tile surface, improving the flexibility of the magnetic tile grinding equipment. During operation, the user rotates the first lead screw 13, which drives the longitudinal slide 11 via a threaded structure, causing the longitudinal slide 11 to move up and down along the column direction, thereby adjusting the grinding height of the grinding wheel 31. Then, by rotating the second lead screw 14, the user can adjust the grinding height of the grinding wheel 31. The inner side of the longitudinal slide 11 drives the transverse slide 12, thereby causing the transverse slide 12 to move the grinding wheel 31 horizontally and adjust the grinding position of the grinding wheel 31 so that the grinding wheel 31 is in close contact with the surface of the magnetic tile. The grinding head motor 6 is installed and fixed in the circular slot of the fixed bracket 10, so that the grinding head motor 6 is fixed on one side of the transverse slide 12. When the longitudinal slide 11 moves, it drives the transverse slide 12 as a whole to complete the vertical adjustment of the grinding head motor 6. When the transverse slide 12 moves, it directly drives the grinding head motor 6 to move horizontally, completing the bidirectional adjustment operation of the grinding wheel 31.

[0048] By setting the discharge component 28, the use of the tooling component 8 can be optimized when the ferrite magnetic tile grinding step equipment is used. The unloading operation of the ferrite magnetic tile can be automatically completed during the rotation of the tooling component 8, avoiding the jamming phenomenon of the tooling component 8 and improving the stability of the equipment. During operation, since the tooling component 8 adopts the splicing column 25, after the lower clamp 22 and the upper clamp 23 are assembled, an annular groove structure is formed at their joint, so that the unloading clamp 17 can be inserted between the lower clamp 22 and the upper clamp 23. When the rotary table 15 drives the tooling component 8 to rotate one revolution, the unloading clamp 17 unloads the magnetic tile from the lower clamp 22 and the upper clamp 23, so that the magnetic tile falls into the discharge slide 9 for discharge. Furthermore, the height of the unloading clamp 17 can be adjusted arbitrarily by using the telescopic rod 19, making it suitable for magnetic tile structures of various specifications, giving it a mechanical automatic unloading structure.

[0049] The above description is merely a preferred embodiment of the present invention and is not intended to limit the present invention in any way. Although the present invention has been disclosed above with reference to preferred embodiments, it is not intended to limit the present invention. Any person skilled in the art can make some modifications or alterations to the above-disclosed technical content to create equivalent embodiments without departing from the scope of the present invention. Any simple modifications, equivalent changes and alterations made to the above embodiments based on the technical essence of the present invention without departing from the scope of the present invention shall still fall within the scope of the present invention.

Claims

1. A ferrite magnetic tile grinding step equipment, characterized in that, The assembly includes a housing base (1), a grinding head motor (6), and a vibratory feeder (3). The vibratory feeder (3) is fixedly installed on the upper outer surface of the housing base (1). The grinding head motor (6) is movably installed on the upper end of the housing base (1) on one side of the vibratory feeder (3). The grinding head motor (6) and the housing base (1) are movably connected by a steering mechanism (7). Two sets of grinding wheels (31) are movably installed on the lower part of the grinding head motor (6). The two sets of grinding wheels (31) are arranged side by side, one above the other. The upper end of the housing base (1) is located on the upper side of the grinding wheels (31). 1) A fixture (8) for fixing magnetic tiles is installed on one side. A rotating table (15) is spliced ​​on the lower part of the fixture (8), and the lower end of the rotating table (15) is driven by a rotary motor (16). A conveying track (4) is provided between the vibrating plate (3) and the fixture (8). The discharge end of the conveying track (4) is perpendicular to the upper part of the fixture (8). A discharge slide (9) is installed on one side of the fixture (8), and a discharge component (28) for separating magnetic tiles on the fixture (8) is installed on the upper part of the discharge slide (9). The tooling component (8) includes a docking base (21), a lower clamping base (22) and an upper clamping base (23). The upper clamping base (23) is spliced ​​and installed on the upper part of the lower clamping base (22), and the docking base (21) is fixedly installed on the lower part of the lower clamping base (22). Both the lower card holder (22) and the upper card holder (23) are provided with an arc-shaped card slot (24) for connecting the magnetic tile on one side. The middle parts of the lower card holder (22) and the upper card holder (23) are spliced ​​and fixed by splicing column (25). The discharge component (28) includes a fixed buckle (29) and an outer rod (30). The outer rod (30) is fixedly installed on the upper outer surface of the fixed buckle (29). A telescopic rod (19) is movably installed on the upper part of the outer rod (30), and a discharge strip (17) is provided at the top of the telescopic rod (19). One end of the discharge strip (17) has an inclined structure.

2. The ferrite magnetic tile grinding step equipment according to claim 1, characterized in that, The steering device (7) includes a longitudinal slide (11) and a transverse slide (12). The transverse slide (12) is movably installed inside the longitudinal slide (11). The longitudinal slide (11) and the box base (1) are slidably connected by a column.

3. The ferrite magnetic tile grinding step equipment according to claim 2, characterized in that, The longitudinal slide (11) and the column are driven by a first lead screw (13), and the longitudinal slide (11) and the transverse slide (12) are driven by a second lead screw (14). Both the second lead screw (14) and the first lead screw (13) are equipped with handwheels at their ends.

4. The ferrite magnetic tile grinding step equipment according to claim 3, characterized in that, A fixed bracket (10) for loading the grinding head motor (6) is fixedly installed on one side of the transverse slide (12). A circular slot is provided in the middle of the fixed bracket (10). A control cabinet (5) is installed at the rear end of the grinding head motor (6).

5. The ferrite magnetic tile grinding step equipment according to claim 1, characterized in that, The upper end of the box base (1) is fixedly installed on one side of the tooling (8) with a mounting base (2). The mounting base (2) is provided with a first sensor (18) and a second sensor (20) for sensing the position of the magnetic tile on the tooling (8). The first sensor (18) is located below the second sensor (20).

6. The ferrite magnetic tile grinding step equipment according to claim 1, characterized in that, The discharge end of the conveying track (4) is equipped with a discharge nozzle (26), and the inner side of the discharge nozzle (26) is provided with an arc-shaped material trough (27).

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