A blade polishing apparatus for a reciprocating shaver

By designing an automated blade polishing device, efficient and stable polishing of both the fixed and movable blades of reciprocating shavers is achieved, solving the problems of low efficiency and unstable quality of traditional manual polishing, and improving shaving comfort and safety.

CN117943955BActive Publication Date: 2026-07-07SHENZHEN FULAIBO AUTOMATION EQUIP CO LTD

Patent Information

Authority / Receiving Office
CN · China
Patent Type
Patents(China)
Current Assignee / Owner
SHENZHEN FULAIBO AUTOMATION EQUIP CO LTD
Filing Date
2024-02-04
Publication Date
2026-07-07

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    Figure CN117943955B_ABST
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Abstract

The application discloses a kind of blade polishing equipment of reciprocating shaver, including polishing mechanism, feeding mechanism, feeding mechanism, workpiece transfer mechanism, workpiece clamping feed mechanism and discharging mechanism, workpiece clamping feed mechanism includes polishing feed mechanism and the polishing clamp installed on polishing feed mechanism, feeding mechanism is transported to feeding mechanism with the workpiece of direction adjustment, workpiece transfer mechanism is clamped after workpiece is taken from feeding mechanism and is transferred to the polishing clamp of workpiece clamping feed mechanism and clamps tightly;Polishing feed mechanism drives the workpiece on polishing clamp to the polishing wheel of polishing mechanism and carries out polishing;After workpiece polishing is completed, polishing clamp releases finished workpiece, and workpiece transfer mechanism removes finished workpiece from polishing clamp and is transferred to discharging mechanism and discharges.This application can carry out automatic polishing to the blade of reciprocating shaver, and the efficiency of deburring is high, and the polishing quality is stable, and the labor intensity of operator is low.
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Description

Technical Field

[0001] This invention relates to reciprocating razors, and more particularly to a blade polishing device for reciprocating razors. Background Technology

[0002] A reciprocating shaver is a common personal care appliance that uses a set of working blades to shave facial hair. The fixed blade and the movable blade are two key components of a reciprocating shaver. The fixed blade is usually fixed behind a metal mesh, while the movable blade is a set of blades that can move back and forth below the fixed blade. When the shaver is turned on, the movable blade moves rapidly back and forth below the fixed blade, thus shaving the hair.

[0003] Reciprocating razors have two blades: a fixed blade and a movable blade. For example... Figure 16 and Figure 17 As shown, both the fixed blade and the movable blade are elongated U-shaped structures, with their cutting edges located at the flange of the U-shaped structure opening.

[0004] During the manufacturing process, burrs are generated on the blades of both the fixed and movable razors due to machining. These burrs not only affect shaving comfort and performance but can also potentially scratch the user's skin. Therefore, removing these burrs is a crucial process step. The deburring process for the fixed and movable blades of a razor requires particular precision because these parts are relatively fragile and directly impact shaving results. Grinding or polishing methods are typically used to remove burrs from the fixed and movable blades, ensuring smooth, burr-free blade edges. Traditional manual deburring and polishing processes are not only inefficient but also produce inconsistent polishing quality. Summary of the Invention

[0005] The technical problem to be solved by the present invention is to provide a blade polishing device for a reciprocating shaver with high deburring efficiency and stable polishing quality.

[0006] To solve the above-mentioned technical problems, the technical solution adopted by the present invention is a blade polishing device for a reciprocating shaver, comprising a frame, a polishing mechanism, a feeding mechanism, a loading mechanism, a workpiece transfer mechanism, a workpiece clamping and feeding mechanism corresponding to the polishing mechanism, a unloading mechanism, and a control circuit. The workpiece to be processed is a long strip or U-shaped blade. The workpiece clamping and feeding mechanism includes a polishing feeding mechanism and a polishing fixture mounted on the polishing feeding mechanism. The feeding mechanism conveys the workpiece with the adjusted direction to the loading mechanism. The workpiece transfer mechanism picks up the workpiece from the loading mechanism and moves it to the polishing fixture of the workpiece clamping and feeding mechanism for clamping. The polishing feeding mechanism drives the workpiece on the polishing fixture to the polishing wheel of the polishing mechanism for polishing. After the workpiece is polished, the polishing fixture releases the finished workpiece, and the workpiece transfer mechanism removes the finished workpiece from the polishing fixture and moves it to the unloading mechanism for unloading.

[0007] The blade polishing equipment described above includes a feeding mechanism comprising at least one vibratory feeder and a feeding trough corresponding to the vibratory feeder and mounted on a linear vibrator; a loading mechanism comprising a workpiece flipping device and a distributing device corresponding to the vibratory feeder, the distributing device comprising a distributing block, a first linear guide pair, and a distributing cylinder; the first linear guide pair and the distributing cylinder are respectively arranged along the X-axis direction, the distributing block is fixed on the slider of the first linear guide pair, and the piston rod of the distributing cylinder is connected to the distributing block; the width of the distributing block along the Y-axis direction is less than the length of the workpiece, the top surface of the distributing block includes a receiving groove, the receiving groove being open at both ends along the Y-axis direction; the distributing block includes a loading position and a unloading position along the X-axis direction, when the distributing block is in the loading position, the receiving groove is connected to the outlet of the corresponding vibratory feeder through the corresponding feeding trough, the feeding trough having its opening facing upwards, and the long axis being arranged along the Y-axis direction. The workpiece is conveyed to the receiving groove of the material distribution block; the workpiece flipping device includes a first gripper cylinder, a rotary cylinder, a Y-axis motion mechanism and a first Z-axis motion mechanism; the first Z-axis motion mechanism is mounted on the Y-axis motion mechanism, the rotary cylinder is mounted on the first Z-axis motion mechanism, and the first gripper cylinder is fixed on the output shaft of the rotary cylinder, the output shaft of the rotary cylinder is parallel to the X-axis direction; the workpiece flipping device includes a pick-up position and a unloading position. In the pick-up position, the gripper of the first gripper cylinder faces downward and is located directly above the receiving groove of the material distribution block unloading position. The gripper of the first gripper cylinder opens and closes along the Y-axis direction to pick up the workpiece in the receiving groove of the material distribution block; in the unloading position, the rotary cylinder rotates 180°, and the gripper of the first gripper cylinder holding the workpiece faces upward and is located below the pick-up gripper of the workpiece transfer mechanism.

[0008] The blade polishing equipment described above includes a feeding mechanism comprising two vibratory feeders, with corresponding feed troughs arranged separately along the X-axis; a loading mechanism comprising two distributing devices and a loading base, with the guide rail and distributing cylinder of the first linear guide pair respectively fixed to the loading base along the X-axis; the distributing blocks of the two distributing devices being staggered along the Y-axis; each distributing device including a workpiece positioning optical sensor, mounted on the outer side of the receiving trough at the distributing block away from the corresponding feed trough via a sensor bracket; a second distributing device including a sensor bracket moving cylinder and a sensor bracket moving limiter, the sensor bracket moving cylinder being fixed to the loading base along the Y-axis, and the sensor bracket of the second distributing device being fixed to the piston rod of the sensor bracket moving cylinder; and a workpiece flipping device including a connecting plate, with the Y-axis of the workpiece flipping device being... The directional motion mechanism includes a first lead screw and nut pair and a second linear guide pair. The lead screw of the first lead screw and nut pair is fixed to the loading base via a bearing seat and is arranged along the Y-axis. The lead screw of the first lead screw and nut pair is driven by a first servo motor. The guide rail of the second linear guide pair is fixed to the loading base along the Y-axis. The first Z-axis directional motion mechanism includes a first Z-axis cylinder, a third linear guide pair, and a first Z-axis bracket. The guide rail of the third linear guide pair is vertically fixed to the upright plate of the first Z-axis bracket. The rotary cylinder is fixed to the slider of the third linear guide pair. The first Z-axis cylinder is fixed to the top of the first Z-axis bracket, and the lower end of the first Z-axis bracket is fixed to the slider of the second linear guide pair. The first Z-axis bracket is connected to the nut of the first lead screw and nut pair. The first gripper cylinder fixes one end of the connecting plate, and the other end of the connecting plate is fixed to the output shaft of the rotary cylinder.

[0009] The blade polishing equipment described above includes a workpiece transfer mechanism comprising two workpiece transfer devices and a transfer device support. Each workpiece transfer device includes a first linear module, a second Z-axis motion mechanism, and a second gripper cylinder. The two first linear modules are arranged along the X-axis and mounted back-to-back on the transfer device support. The first workpiece transfer device is positioned in front of the second workpiece transfer device along the Y-axis. The second Z-axis motion mechanism is mounted on the slider of the first linear module, and the second gripper cylinder is vertically fixed to the slider of the second Z-axis motion mechanism. The grippers of the second gripper cylinder face downwards and open and close along the X-axis. After the second gripper cylinder of the first workpiece transfer device picks up the workpiece from the loading mechanism, it transfers it to the polishing fixture of the workpiece clamping feed mechanism for clamping. After polishing, the second gripper cylinder of the second workpiece transfer device removes the finished workpiece from the polishing fixture and transfers it to the unloading mechanism for unloading.

[0010] The blade polishing equipment described above includes a second Z-axis motion mechanism comprising a second lead screw and nut pair, a sixth linear guide pair, a second servo motor, and a second Z-axis support. The second Z-axis support is fixed on the slider of the first linear module. The lead screw of the second lead screw and nut pair is vertically mounted on the upright plate of the second Z-axis support and is driven by the second servo motor. The guide rail of the sixth linear guide pair is vertically fixed on the upright plate of the second Z-axis support, and the slider of the sixth linear guide pair is the slider of the second Z-axis motion mechanism. The slider of the sixth linear guide pair is connected to the nut of the second lead screw and nut pair and moves up and down with the nut of the second lead screw and nut pair.

[0011] The blade polishing equipment described above includes a polishing feed mechanism comprising an X-direction linear module and a Y-direction linear module. The polishing fixture comprises at least one workpiece fixture and a reciprocating swing mechanism. The bottom of the reciprocating swing mechanism is fixed to the slider of the X-direction linear module, and the X-direction linear module is mounted on the slider of the Y-direction linear module. The workpiece fixture includes a finger cylinder, an elastic support plate, and two elastic clamping plates. The swing axis of the swing mechanism is arranged along the Y-axis, and the finger cylinder is fixed to the swing mechanism. The fingers of the finger cylinder face upwards and open and close along the Y-axis. The two elastic clamping plates are respectively fixed to the two fingers of the finger cylinder. In the plane; the lower end of the elastic support plate is fixed on the swing mechanism, located between the two elastic clamping plates, and in the same plane as the two elastic clamping plates; the polishing mechanism includes a polishing machine bracket and two polishing machines, which are mounted on the top of the polishing machine bracket and arranged separately along the X-axis; the axis of the polishing machine is arranged along the Y-axis, and the polishing wheel shaft end of the polishing machine faces the polishing fixture; the polishing fixture includes a loading position and a polishing position. In the loading position of the polishing fixture, the polishing fixture is located on one side of the loading mechanism along the X-axis; in the polishing position of the polishing fixture, the polishing feed mechanism moves the workpiece fixture along the Y-axis between the polishing wheels of the two polishing machines.

[0012] The blade polishing equipment described above includes polishing fixtures comprising one or more workpiece fixtures. The reciprocating oscillation mechanism includes an oscillating housing, a front support, a rear support, a hollow rotary platform, a third servo motor, and a fixture selection device. The fixture selection device includes a base plate, a top plate, a fourth linear guide pair, and a Y-axis cylinder. The base plate is fixed to the slider of the X-direction linear module, and the guide rail of the fourth linear guide pair is fixed to the top surface of the base plate along the Y-axis direction. The top plate is fixed to the slider of the fourth linear guide pair, and the Y-axis cylinder is fixed to the base plate, with the piston rod of the Y-axis cylinder connected to the top plate. The front support and the rear support... The bracket is fixed to the top surface of the top plate, and the hollow rotating platform is fixed to the front bracket and driven by the third servo motor. The front part of the swing housing is connected to the output receiving plate of the hollow rotating platform. The rear part of the swing housing is hinged to the rear bracket, and the hinge axis of the swing housing and the rear bracket is coaxial with the output receiving plate of the hollow rotating platform. The two workpiece clamps are arranged separately along the Y-axis. The finger cylinders of the two workpiece clamps are fixed inside the swing housing. The fingers of the two workpiece clamps extend out from the top plate hole of the swing housing. The elastic support plates of the two workpiece clamps are fixed to the top plate of the swing housing.

[0013] The blade polishing equipment described above includes a feeding mechanism comprising two receiving boxes, two sets of fifth linear guide rail pairs, a feeding bracket, and a synchronous belt device driven by a fourth servo motor. The feeding bracket is fixed on the frame, and the synchronous belt device is installed below the top plate of the feeding bracket and arranged along the Y-axis. The guide rails of the fifth linear guide rail pairs are fixed on the top plate of the feeding bracket along the Y-axis and separated along the X-axis. The two receiving boxes are respectively fixed on the sliders of the two sets of fifth linear guide rail pairs, and the sliders of the two sets of fifth linear guide rail pairs are respectively connected to the belts on both sides of the synchronous belt device along the X-axis via belt clamps.

[0014] The blade polishing equipment described above includes a plurality of polishing mechanisms and a plurality of workpiece clamping and feeding mechanisms corresponding to the polishing mechanisms. The plurality of polishing mechanisms are arranged separately along the X-axis, and the plurality of workpiece clamping and feeding mechanisms corresponding to the polishing mechanisms are arranged separately along the X-axis. The polishing mechanisms and the workpiece clamping and feeding mechanisms corresponding to the polishing mechanisms are arranged separately along the Y-axis. The polishing mechanisms are arranged behind the workpiece transfer mechanism along the Y-axis, and the workpiece clamping and feeding mechanisms corresponding to the polishing mechanisms are arranged in front of the workpiece transfer mechanism along the Y-axis.

[0015] The blade polishing equipment of the present invention can automatically polish the blades of reciprocating shavers, with high polishing and deburring efficiency, stable polishing quality, and low labor intensity for operators. Attached Figure Description

[0016] The present invention will now be described in further detail with reference to the accompanying drawings and specific embodiments.

[0017] Figure 1This is a perspective view of the blade polishing device for a reciprocating shaver according to an embodiment of the present invention.

[0018] Figure 2 This is a perspective view of the blade polishing device for the reciprocating shaver according to an embodiment of the present invention.

[0019] Figure 3 This is a front view of the blade polishing device for a reciprocating shaver according to an embodiment of the present invention.

[0020] Figure 4 This is a top view of the blade polishing device for a reciprocating shaver according to an embodiment of the present invention.

[0021] Figure 5 This is a right view of the blade polishing device for a reciprocating shaver according to an embodiment of the present invention.

[0022] Figure 6 This is a left view of the blade polishing device for a reciprocating shaver according to an embodiment of the present invention.

[0023] Figure 7 This is a rear view of the blade polishing device for a reciprocating shaver according to an embodiment of the present invention.

[0024] Figure 8 This is a perspective view of the initial position of the feeding mechanism in an embodiment of the present invention.

[0025] Figure 9 This is a perspective view of the flipping position of the feeding mechanism in an embodiment of the present invention.

[0026] Figure 10 yes Figure 1 A magnified view of part I in the middle section.

[0027] Figure 11 This is a perspective view of the workpiece clamping and feeding mechanism and the polishing mechanism in an embodiment of the present invention.

[0028] Figure 12 This is a perspective view of a partial cross-section of the workpiece fixture according to an embodiment of the present invention.

[0029] Figure 13 This is a perspective view of the workpiece transfer mechanism according to an embodiment of the present invention.

[0030] Figure 14 This is a perspective view of the feeding mechanism in an embodiment of the present invention.

[0031] Figure 15 This is a perspective view of a partial cross-section of the feeding mechanism in an embodiment of the present invention.

[0032] Figure 16 This is a perspective view of the fixing knife used as a workpiece in an embodiment of the present invention.

[0033] Figure 17This is a perspective view of the movable tool used as a workpiece in an embodiment of the present invention. Detailed Implementation

[0034] The structure of the blade polishing device for the reciprocating shaver in this embodiment of the invention is as follows: Figures 1 to 15 As shown, it includes a frame 10, a feeding mechanism 20, a loading mechanism 100, a workpiece transfer mechanism 80, a polishing mechanism 50, a workpiece clamping and feeding mechanism 60 corresponding to the polishing mechanism 50, a unloading mechanism 70, and a control circuit.

[0035] The workpiece 01 to be processed can be Figure 16 The fixed blade 01B shown or Figure 17 The movable tool 01A is shown. Both are elongated U-shaped structures, with the fixed tool 01B being longer than the movable tool 01A. The cutting edges of both the fixed tool 01B and the movable tool 01A are located at the flange of the opening of the U-shaped structure. Burrs on the cutting edges of both the fixed tool 01B and the movable tool 01A caused by machining need to be removed by polishing.

[0036] The frame 10 includes a cover (not shown) and a platform 11, the top of which includes a table 12.

[0037] like Figures 1 to 7 As shown, the feeding mechanism 20 includes two vibratory feeders 21 and corresponding feed troughs 23 mounted on the vertical vibrator 22. The two vibratory feeders 21 are respectively fixed on the platform 12 of the machine base 11. The feed troughs 23 corresponding to the two vibratory feeders 21 are arranged separately along the X-axis direction.

[0038] Among them, the vibratory plate 21A and the feeding trough 23A installed on the straight vibrator 22A are used to feed the movable knife 01A, and the vibratory plate 21B and the feeding trough 23B installed on the straight vibrator 22B are used to feed the fixed knife 01B.

[0039] like Figures 1 to 10 As shown, the feeding mechanism 100 includes a feeding base 100A, a workpiece flipping device 30, and two distributing devices 40 corresponding to the two vibrating plates 21. The feeding base 100A is fixed on the table 12. Of the two distributing devices 40, the first distributing device 40A is used for distributing material to the movable blade 01A, and the second distributing device 40B is used for distributing material to the fixed blade 01B.

[0040] The material distribution device 40 includes a material distribution block 41, a first linear guide pair 42, and a material distribution cylinder 43. The guide rails of the first linear guide pair 42 and the material distribution cylinder 43 are both fixed to the loading base 100A and arranged along the X-axis. The material distribution block 41 is fixed to the slider of the first linear guide pair 42, and the piston rod of the material distribution cylinder 43 is connected to the material distribution block 41 via a connecting plate 44. The width of the material distribution block 41 along the Y-axis is less than the length of the workpiece 01, and the top surface of the material distribution block 41 has a receiving groove 45, which is open at both ends along the Y-axis. Driven by the material distribution cylinder 43, the material distribution block 41 includes a loading position and a unloading position along the X-axis. When the material distribution block 41 is in the loading position, the receiving groove 45 is connected to the outlet of the corresponding vibrating plate 21 through the corresponding conveying groove 23. The conveying groove 23 has its opening facing upward, and the long axis of the conveying groove 23 is arranged along the Y-axis. The workpiece 01 is conveyed into the receiving groove 45 of the material distribution block 41, and both ends of the workpiece 01 are exposed from both ends of the conveying groove 23.

[0041] The material distribution block 41A of the material distribution device 40A and the material distribution block 41B of the material distribution device 40B are staggered along the Y-axis.

[0042] In order to detect whether the workpiece 01 has reached the material distribution trough 45, the material distribution device 40 also includes a workpiece positioning optical sensor 46. The workpiece positioning optical sensor 46 is installed on the outer side of the material distribution block 41 at the material position and the receiving trough 45 away from the corresponding material conveying trough 23 via a sensor bracket 47.

[0043] To accommodate fixed blades 01B of different lengths, the second material distribution device 40B also includes a sensor bracket moving cylinder 48 and a sensor bracket moving limiter 49. The sensor bracket moving cylinder 48 is fixed to the feeding base 100A along the Y-axis, and the sensor bracket 47 of the material distribution device 40B is fixed to the piston rod of the sensor bracket moving cylinder 48.

[0044] The workpiece flipping device 30 includes a first gripper cylinder 31, a connecting plate 311 for mounting the first gripper cylinder 31, a rotary cylinder 32, a Y-axis motion mechanism, and a first Z-axis motion mechanism.

[0045] The Y-axis motion mechanism includes a first lead screw and nut pair 33 and a second linear guide pair 34. The lead screw 331 of the first lead screw and nut pair 33 is fixed to the loading base 100A via a bearing seat 333 and is arranged along the Y-axis. The lead screw 331 of the first lead screw and nut pair 33 is driven by a first servo motor 334 via a coupling 335. The guide rail 341 of the second linear guide pair 34 is fixed to the loading base 100A along the Y-axis. The Z-axis motion mechanism includes a first Z-axis cylinder 35, a third linear guide pair 36, and a first Z-axis support 37. The guide rail 361 of the third linear guide pair 36 is vertically fixed to the upright plate of the first Z-axis support 37. A rotary cylinder 32 is fixed to the slider of the third linear guide pair 36, and the output shaft of the rotary cylinder 32 is parallel to the X-axis. The first Z-axis cylinder 35 is fixed to the top of the first Z-axis bracket 37, and the lower end of the first Z-axis bracket 37 is fixed to the slider 342 of the second linear guide pair 34. The first Z-axis bracket 37 is connected to the nut 332 of the first lead screw nut pair 33. The first gripper cylinder 31 is fixed to one end of the connecting plate 311, and the other end of the connecting plate 311 is fixed to the output shaft (receiving plate) 321 of the rotary cylinder 32.

[0046] The workpiece flipping device 30 includes a pick-up position and a unloading position. In the pick-up position, the gripper of the first gripper cylinder 31 faces downward and is located directly above the receiving groove 45 of the material distribution block 41 of the working material distribution device 40. The gripper of the first gripper cylinder 31 opens and closes along the Y-axis to pick up the workpiece 01 in the receiving groove 45 of the material distribution block 41. In the unloading position, the rotary cylinder 32 rotates 180°, and the gripper of the first gripper cylinder 31, which has picked up the workpiece 01, faces upward and is located directly below the second gripper cylinder 84A of the first workpiece transfer device 81A.

[0047] like Figures 1 to 7 and Figure 13 As shown, the workpiece transfer mechanism 80 includes two sets of workpiece transfer devices 81 and transfer device brackets 82. The workpiece transfer device 81 includes a first linear module 82, a second Z-axis direction motion mechanism 83, and a second gripper cylinder 84. The two first linear modules 82 are arranged along the X-axis direction and are mounted back-to-back on the transfer device brackets 82. The first workpiece transfer device 81A is arranged in front of the second workpiece transfer device 81B along the Y-axis direction.

[0048] The second Z-axis motion mechanism 83 includes a second lead screw and nut pair 831, a sixth linear guide pair 832, a second servo motor 833, and a second Z-axis bracket 834. The second Z-axis bracket 834 is fixed on the slider of the first linear module 82. The lead screw of the second lead screw and nut pair 831 is vertically mounted on the upright plate of the second Z-axis bracket 834 and is driven by the second servo motor 833. The guide rail of the sixth linear guide pair 832 is vertically fixed on the upright plate of the second Z-axis bracket 834. The slider of the sixth linear guide pair 832 is the slider of the second Z-axis motion mechanism 83. The second gripper cylinder 84 is vertically fixed on the slider of the sixth linear guide pair 832. The slider of the sixth linear guide pair 832 is connected to the nut of the second lead screw and nut pair 831 and moves up and down with the nut of the second lead screw and nut pair 831, thereby driving the second gripper cylinder 84 to move up and down.

[0049] The jaws of the second gripper cylinder 84 face downwards and open and close along the X-axis. After the second gripper cylinder 84A of the first workpiece transfer device 81A picks up the workpiece 01 from the loading mechanism 100, it is transferred to the polishing fixture 60B of the workpiece clamping feed mechanism 60 for clamping. After the workpiece 01 is polished, the second gripper cylinder 84B of the second workpiece transfer device 81B removes the finished workpiece 01 from the polishing fixture 60B and transfers it to the unloading mechanism 70 for unloading.

[0050] like Figures 1 to 7 As shown, in order to improve production efficiency, the blade polishing equipment of the reciprocating shaver in this embodiment of the invention adopts two polishing mechanisms 50 and two corresponding workpiece clamping and feeding mechanisms 60. The polishing mechanism 50 and the corresponding workpiece clamping and feeding mechanism 60 are arranged separately along the Y-axis direction, the polishing mechanisms 50A and 50B are arranged separately along the X-axis direction, and the workpiece clamping and feeding mechanisms 60A and 60B are arranged separately along the X-axis direction.

[0051] like Figure 11 As shown, the workpiece clamping and feeding mechanism 60 includes a polishing feeding mechanism 60A and a polishing fixture 60B mounted on the polishing feeding mechanism 60A.

[0052] The polishing feed mechanism 60A includes an X-direction linear module 61 and a Y-direction linear module 62. The X-direction linear module 61 is mounted on the slider of the Y-direction linear module 62, and the Y-direction linear module 62 is mounted on the table 12 of the machine tool 11.

[0053] The polishing fixture 60B includes two workpiece fixtures 60C and a reciprocating swing mechanism 60D. The bottom of the reciprocating swing mechanism 60D is fixed to the slider of the X-direction linear module 61. The workpiece fixture 60C includes a finger cylinder 63, an elastic support plate 631, and two elastic clamping plates 632. The swing axis of the swing mechanism is arranged along the Y-axis. The finger cylinder 63 is fixed to the swing mechanism. The finger 633 of the finger cylinder 63 faces upward and opens and closes along the Y-axis. The two elastic clamping plates 632 are respectively fixed to the two fingers of the finger cylinder 63 and are located in the plane where the finger cylinder 63 is located. The lower end of the elastic support plate 631 is fixed to the swing mechanism. The elastic support plate 631 is located between the two elastic clamping plates 632 and is in the same plane as the two elastic clamping plates 632.

[0054] The polishing mechanism 50 includes a polishing machine support 52 and two polishing machines 51. The two polishing machines 51 are mounted on top of the polishing machine support 52 and are arranged separately along the X-axis. The axes of the polishing machines 51 are arranged along the Y-axis, and the shaft ends of the polishing wheels of the polishing machines 51 face the polishing fixture 60B.

[0055] like Figure 12 As shown, the reciprocating swing mechanism 60D includes a swing housing 64, a front support 651, a rear support 652, a hollow rotary platform 653, a third servo motor 654, and a fixture selection device. The fixture selection device includes a base plate 661, a top plate 662, a fourth linear guide pair 67, and a Y-axis cylinder 68. The base plate 661 is fixed to the slider of the X-direction linear module 61, and the guide rail 671 of the fourth linear guide pair 67 is fixed to the top surface of the base plate 661 along the Y-axis direction. The top plate 662 is fixed to the slider 672 of the fourth linear guide pair 67, and the Y-axis cylinder 68 is fixed to the base plate 661. The piston rod of the Y-axis cylinder 68 is connected to the top plate 662.

[0056] The front support 651 and the rear support 652 are fixed to the top surface of the top plate 662. The hollow rotating platform 653 is fixed to the front support 651 and driven by the third servo motor 654. The front part of the swing housing 64 is connected to the output plate of the hollow rotating platform 653. The rear part of the swing housing 64 is hinged to the rear support 652. The hinge shaft 653 connecting the swing housing 64 and the rear support 652 is coaxial with the output plate of the hollow rotating platform 653.

[0057] Two workpiece clamps 60C are arranged separately along the Y-axis. The finger cylinders 63 of the two workpiece clamps 60C are fixed inside the swing housing 64. The fingers of the two workpiece clamps 60C extend out from the top plate holes 642 of the swing housing 64. The elastic support plates 631 of the two workpiece clamps 60C are fixed to the top plate 641 of the swing housing 64. The two workpiece clamps 60C are used for workpieces 01 of different lengths, so the widths of the elastic support plates 631 of the two workpiece clamps 60C along the Y-axis are different.

[0058] The polishing fixture 60B includes a loading position and a polishing position. In the loading position, the polishing fixture 60B is located to the right of the loading mechanism 100 along the X-axis. In the polishing position, the polishing feed mechanism 60A moves the workpiece fixture 60C along the Y-axis between the polishing wheels of the two polishing machines 51.

[0059] like Figure 14 and Figure 15 As shown, the unloading mechanism 70 includes two receiving boxes 71, two sets of fifth linear guide pairs 72, an unloading bracket 73, and a synchronous belt device 75 driven by a fourth servo motor 74. The unloading bracket 73 is fixed on the platform 12, and the synchronous belt device 75 is installed below the top plate 731 of the unloading bracket and arranged along the Y-axis. The guide rails 721 of the fifth linear guide pairs 72 are fixed on the top plate 731 of the unloading bracket 73 along the Y-axis and are arranged separately along the X-axis. The two receiving boxes 71 are respectively fixed on the sliders 722 of the two sets of fifth linear guide pairs 72. The sliders 722 of the two sets of fifth linear guide pairs 72 are respectively connected to the belts 751 on both sides of the synchronous belt device 75 along the X-axis through belt clamps 76. The synchronous belt device 75 drives the two receiving boxes 71 to alternately move from the receiving position to the unloading position or return from the unloading position to the receiving position.

[0060] Although the feeding mechanism 20 of the reciprocating shaver blade polishing device in the above embodiments of the present invention has two vibrating discs 21 and the feeding mechanism 100 has two dispensing devices 40, which can be used for feeding and dispensing the movable blade 01A or for feeding and dispensing the fixed blade 01B, when the blade polishing device is working, only one vibrating disc 21 and the corresponding dispensing device 40 can be selected to work, that is, only feeding and dispensing the movable blade 01A or only feeding and dispensing the fixed blade 01B.

[0061] The working process of the blade polishing device for the reciprocating shaver according to the above embodiments of the present invention includes the following steps:

[0062] 1) Vibratory feeder 21 outputs workpiece 01 to be processed to the corresponding material distribution device 40 through material conveying trough 23. Workpiece 01 is conveyed to the receiving trough 45 of the corresponding material distribution block 41, with the opening of workpiece 01 facing upward.

[0063] 2) The material distribution cylinder 43 moves the material distribution block 41 from the loading position to the unloading position;

[0064] 3) The first Z-axis motion mechanism of the workpiece flipping device 30 drives the rotary cylinder 32 and the first gripper cylinder 31 to move downward. After the gripper of the first gripper cylinder 31 clamps the workpiece 01, the first Z-axis motion mechanism drives the rotary cylinder 32 and the first gripper cylinder 31 to move upward and reset.

[0065] 4) The rotary cylinder 32 drives the first gripper cylinder 31 and the workpiece 01 to rotate 180°, with the gripper of the first gripper cylinder 31 and the workpiece 01 facing upwards; the Y-axis motion mechanism moves the first gripper cylinder 31 from the pick-up position to the unload position.

[0066] 5) The second gripper cylinder 84A of the first workpiece transfer device 81A moves to the unloading position of the workpiece flipping device 30, and the gripper of the second gripper cylinder 84A clamps the workpiece 01 in the gripper of the first gripper cylinder 31; the second Z-axis direction motion mechanism 83 of the first workpiece transfer device 81A lifts the second gripper cylinder 84A and the clamped workpiece 01.

[0067] 6) The first linear module 82 of the first workpiece transfer device 81A moves the second gripper cylinder 84A and the gripped workpiece 01 along the X-axis direction above a set of workpiece clamping and feeding mechanism 60. At this time, the polishing fixture 60B corresponding to the workpiece clamping and feeding mechanism 60 is in the loading position.

[0068] 7) Based on the length of workpiece 01, the fixture selection device of polishing fixture 60B adjusts the position of workpiece fixture 60C along the Y-axis direction, and selects one of the workpiece fixtures 60C as the working fixture to carry the workpiece 01 to be processed.

[0069] 8) The second Z-axis motion mechanism 83 of the first workpiece transfer device 81A drives the second gripper cylinder 84A and the gripped workpiece 01 to descend. The second gripper cylinder 84A places the gripped workpiece 01 onto the workpiece fixture 60C, which serves as a working fixture. The U-shaped groove of the workpiece 01 is fastened to the elastic support piece 631 of the workpiece fixture 60C. The fingers of the finger cylinder 63 of the workpiece fixture 60C close, and the two elastic clamping pieces 632 on the fingers of the finger cylinder 63 clamp the workpiece 01. The second gripper cylinder 84A releases the workpiece 01, and the first workpiece transfer device 81A resets.

[0070] 9) The Y-direction linear module 62 of the polishing feed mechanism 60A moves the polishing fixture 60B to the polishing position. The workpiece fixture 60C and the workpiece 01, which serve as working fixtures, are located between the polishing wheels of the two polishing machines 51 of the corresponding polishing mechanism 50.

[0071] 10) When polishing workpiece 01, the reciprocating swing mechanism 60D swings with the work fixture, and the X-direction linear module 61 of the polishing feed mechanism 60A moves between the polishing wheels of the two polishing machines 51 with the work fixture, so that all the parts of workpiece 01 that need to be polished are polished.

[0072] 11) After the workpiece 01 is polished, the first linear module 82 of the second workpiece transfer device 81B moves the second gripper cylinder 84B above the finished workpiece 01 along the X-axis direction. The second Z-axis motion mechanism 83 of the second workpiece transfer device 81B drives the second gripper cylinder 84B to descend. The second gripper cylinder 84B grips the finished workpiece 01, and the workpiece fixture 60C releases the finished workpiece 01.

[0073] 12) The Y-direction linear module 62 of the polishing feed mechanism 60A moves in the opposite direction and resets with the polishing fixture 60B;

[0074] 13) The second workpiece transfer device 81B transfers the completed workpiece 01 to the receiving box 71 in the receiving position of the unloading mechanism 70. After the receiving box 71 in the receiving position is full, the synchronous belt device 75 starts and moves the receiving box 71 in the receiving position to the unloading position to unload the workpiece. The empty receiving box 71 moves to the receiving position to receive the workpiece at the same time.

[0075] The blade polishing equipment of the present invention described above can automatically polish the fixed blades and movable blades of a reciprocating shaver, with high polishing and deburring efficiency, stable polishing quality, and low labor intensity for operators.

Claims

1. A blade polishing device for a reciprocating shaver, comprising a frame, a polishing mechanism, and a control circuit, wherein the workpiece to be processed is a long, U-shaped blade, characterized in that, The system includes a feeding mechanism, a loading mechanism, a workpiece transfer mechanism, a workpiece clamping and feeding mechanism corresponding to the polishing mechanism, and an unloading mechanism. The workpiece clamping and feeding mechanism includes a polishing feeding mechanism and a polishing fixture mounted on it. The feeding mechanism transports the oriented workpiece to the loading mechanism. The workpiece transfer mechanism picks up the workpiece from the loading mechanism and moves it to the polishing fixture of the workpiece clamping and feeding mechanism for clamping. The polishing feeding mechanism moves the workpiece from the polishing fixture to the polishing wheel of the polishing mechanism for polishing. After polishing, the polishing fixture releases the finished workpiece, and the workpiece transfer mechanism removes the finished workpiece from the polishing fixture and moves it to the unloading mechanism for unloading. The polishing feeding mechanism includes an X-direction linear module and a Y-direction linear module. The polishing fixture includes at least one workpiece clamp and a reciprocating swing mechanism. The bottom of the reciprocating swing mechanism is fixed to the slider of the X-direction linear module, and the X-direction linear module is mounted on the slider of the Y-direction linear module. The workpiece fixture includes a finger cylinder, an elastic support plate, and two elastic clamping plates. The swing axis of the swing mechanism is arranged along the Y-axis, and the finger cylinder is fixed on the swing mechanism. The finger of the finger cylinder faces upward and opens and closes along the Y-axis. The two elastic clamping plates are respectively fixed on the two fingers of the finger cylinder and are located in the plane of the finger cylinder. The lower end of the elastic support plate is fixed on the swing mechanism, located between the two elastic clamping plates, and is in the same plane as the two elastic clamping plates. The polishing mechanism includes a polishing machine bracket and two polishing machines. The two polishing machines are mounted on the top of the polishing machine bracket and are arranged separately along the X-axis. The axis of the polishing machine is arranged along the Y-axis, and the polishing wheel shaft end of the polishing machine faces the polishing fixture. The polishing fixture includes a loading position and a polishing position. In the loading position of the polishing fixture, the polishing fixture is located on one side of the loading mechanism along the X-axis. In the polishing position of the polishing fixture, the polishing feed mechanism moves the workpiece fixture along the Y-axis between the polishing wheels of the two polishing machines.

2. The blade polishing equipment according to claim 1, characterized in that, The feeding mechanism includes at least one vibratory feeder and a feeding trough mounted on a vertical vibrator corresponding to the vibratory feeder; the loading mechanism includes a workpiece flipping device and a distributing device corresponding to the vibratory feeder. The distributing device includes a distributing block, a first linear guide pair, and a distributing cylinder; the first linear guide pair and the distributing cylinder are respectively arranged along the X-axis direction. The distributing block is fixed on the slider of the first linear guide pair, and the piston rod of the distributing cylinder is connected to the distributing block; the width of the distributing block along the Y-axis direction is less than the length of the workpiece, and the top surface of the distributing block includes a receiving groove, which is open at both ends along the Y-axis direction; the distributing block includes a loading position and a unloading position along the X-axis direction. When the distributing block is in the loading position, the receiving groove is connected to the outlet of the corresponding vibratory feeder through the corresponding feeding trough, and the feeding trough transports the workpiece with its opening facing upward and its long axis arranged along the Y-axis direction. The workpiece is fed into the receiving slot of the material distribution block; the workpiece flipping device includes a first gripper cylinder, a rotary cylinder, a Y-axis motion mechanism, and a first Z-axis motion mechanism; the first Z-axis motion mechanism is mounted on the Y-axis motion mechanism, the rotary cylinder is mounted on the first Z-axis motion mechanism, and the first gripper cylinder is fixed on the output shaft of the rotary cylinder, the output shaft of the rotary cylinder being parallel to the X-axis direction; the workpiece flipping device includes a pick-up position and a unloading position. In the pick-up position, the gripper of the first gripper cylinder faces downwards, located directly above the receiving slot of the material distribution block unloading position, and the gripper of the first gripper cylinder opens and closes along the Y-axis direction to pick up the workpiece in the receiving slot of the material distribution block; in the unloading position, the rotary cylinder rotates 180°, and the gripper of the first gripper cylinder holding the workpiece faces upwards, located below the pick-up gripper of the workpiece transfer mechanism.

3. The blade polishing equipment according to claim 2, characterized in that, The feeding mechanism includes two vibratory feeders, with their corresponding feed troughs arranged separately along the X-axis. The loading mechanism includes two distributing devices and a loading base. The guide rail of the first linear guide pair and the distributing cylinder are fixed to the loading base along the X-axis. The distributing blocks of the two distributing devices are staggered along the Y-axis. The distributing device includes a workpiece positioning optical sensor, which is mounted on the outer side of the material receiving trough on the distributing block away from the corresponding feed trough via a sensor bracket. The second distributing device includes a sensor bracket moving cylinder and a sensor bracket moving limiter. The sensor bracket moving cylinder is fixed to the loading base along the Y-axis, and the sensor bracket of the second distributing device is fixed to the piston rod of the sensor bracket moving cylinder. The workpiece flipping device includes a connecting plate, and the Y-axis movement mechanism of the workpiece flipping device includes a first lead screw and nut pair and a second lead screw and nut pair. The linear guide pair includes a first lead screw and nut pair, where the lead screw is fixed to the loading base via a bearing seat and arranged along the Y-axis. The lead screw of the first lead screw and nut pair is driven by a first servo motor. The guide rail of the second linear guide pair is fixed to the loading base along the Y-axis. The first Z-axis motion mechanism includes a first Z-axis cylinder, a third linear guide pair, and a first Z-axis support. The guide rail of the third linear guide pair is vertically fixed to the upright plate of the first Z-axis support, and a rotary cylinder is fixed to the slider of the third linear guide pair. The first Z-axis cylinder is fixed to the top of the first Z-axis support and is used to drive the rotary cylinder to move up and down along the third linear guide pair. The lower end of the first Z-axis support is fixed to the slider of the second linear guide pair, and the first Z-axis support is connected to the nut of the first lead screw and nut pair. A first gripper cylinder fixes one end of a connecting plate, and the other end of the connecting plate is fixed to the output shaft of the rotary cylinder.

4. The blade polishing equipment according to claim 1, characterized in that, The workpiece transfer mechanism includes two sets of workpiece transfer devices and a transfer device support. The workpiece transfer device includes a first linear module, a second Z-axis motion mechanism, and a second gripper cylinder. The two first linear modules are arranged along the X-axis and mounted back-to-back on the transfer device support. The first workpiece transfer device is positioned in front of the second workpiece transfer device along the Y-axis. The second Z-axis motion mechanism is mounted on the slider of the first linear module, and the second gripper cylinder is vertically fixed on the slider of the second Z-axis motion mechanism. The grippers of the second gripper cylinder face downwards and open and close along the X-axis. After the second gripper cylinder of the first workpiece transfer device picks up the workpiece from the loading mechanism, it is transferred to the polishing fixture of the workpiece clamping feed mechanism for clamping. After the workpiece is polished, the second gripper cylinder of the second workpiece transfer device removes the finished workpiece from the polishing fixture and transfers it to the unloading mechanism for unloading.

5. The blade polishing equipment according to claim 4, characterized in that, The second Z-axis motion mechanism includes a second lead screw and nut pair, a sixth linear guide pair, a second servo motor, and a second Z-axis bracket. The second Z-axis bracket is fixed on the slider of the first linear module. The lead screw of the second lead screw and nut pair is vertically mounted on the upright plate of the second Z-axis bracket and is driven by the second servo motor. The guide rail of the sixth linear guide pair is vertically fixed on the upright plate of the second Z-axis bracket. The slider of the sixth linear guide pair is the slider of the second Z-axis motion mechanism. The slider of the sixth linear guide pair is connected to the nut of the second lead screw and nut pair and moves up and down with the nut of the second lead screw and nut pair.

6. The blade polishing equipment according to claim 1, characterized in that, The polishing fixture includes two workpiece fixtures as described above. The reciprocating oscillation mechanism includes an oscillation housing, a front support, a rear support, a hollow rotary platform, a third servo motor, and a fixture selection device. The fixture selection device includes a base plate, a top plate, a fourth linear guide pair, and a Y-axis cylinder. The base plate is fixed on the slider of the X-direction linear module, and the guide rail of the fourth linear guide pair is fixed on the top surface of the base plate along the Y-axis direction. The top plate is fixed on the slider of the fourth linear guide pair, and the Y-axis cylinder is fixed on the base plate, with the piston rod of the Y-axis cylinder connected to the top plate. The front support and the rear support are fixed on the top plate. On the top surface, the hollow rotating platform is fixed on the front support and driven by the third servo motor. The front part of the swing housing is connected to the output plate of the hollow rotating platform. The rear part of the swing housing is hinged to the rear support. The hinge axis of the swing housing and the rear support is coaxial with the output plate of the hollow rotating platform. The two workpiece clamps are arranged separately along the Y-axis. The finger cylinders of the two workpiece clamps are fixed inside the swing housing. The fingers of the two workpiece clamps extend out from the top plate hole of the swing housing. The elastic support plates of the two workpiece clamps are fixed on the top plate of the swing housing.

7. The blade polishing equipment according to claim 1, characterized in that, The feeding mechanism includes two receiving boxes, two sets of fifth linear guide pairs, a feeding bracket, and a synchronous belt device driven by a fourth servo motor. The feeding bracket is fixed on the frame, and the synchronous belt device is installed below the top plate of the feeding bracket and arranged along the Y-axis. The guide rails of the fifth linear guide pairs are fixed on the top plate of the feeding bracket along the Y-axis and separated along the X-axis. The two receiving boxes are respectively fixed on the sliders of the two sets of fifth linear guide pairs, and the sliders of the two sets of fifth linear guide pairs are respectively connected to the belts on both sides of the synchronous belt device along the X-axis through belt clamps.

8. The blade polishing equipment according to claim 1, characterized in that, It includes a plurality of polishing mechanisms and a plurality of workpiece clamping and feeding mechanisms corresponding to the polishing mechanisms. The plurality of polishing mechanisms are arranged separately along the X-axis, and the plurality of workpiece clamping and feeding mechanisms corresponding to the polishing mechanisms are arranged separately along the X-axis. The polishing mechanisms and the workpiece clamping and feeding mechanisms corresponding to the polishing mechanisms are arranged separately along the Y-axis. The polishing mechanisms are arranged behind the workpiece transfer mechanism along the Y-axis, and the workpiece clamping and feeding mechanisms corresponding to the polishing mechanisms are arranged in front of the workpiece transfer mechanism along the Y-axis.