An automatic ink code spraying peeling tool

Abstract

The utility model discloses an automatic stripping frock of ink jet code, including external section bar structure, motor installation lifting structure, external section bar structure is fixedly connected through the corner code, motor installation lifting structure is connected with external framework through slide rail and slide rail fixed plate, and motor installation lifting structure can slide up and down movement in the effective stroke of slide rail. The utility model solves the problem that the pipe surface has the existence of the difficult efficient removal of ink jet code, improves the efficiency of the pipe surface removal ink jet code, reduces manpower output and manpower cost, and is suitable for wide range of use.

Description

Technical Field

[0001] This utility model relates to the field of code removal technology on pipe surfaces. Background Technology

[0002] During pipe production, corresponding text information is sprayed onto the pipe surface to determine the pipe's execution standards and specifications. However, unqualified pipes need to have their ink sprayed codes removed before crushing and granulation. Manually removing the ink sprayed codes from the pipe surface would consume a lot of labor costs and would not be efficient. Therefore, it is necessary to design a tooling device that can remove ink sprayed codes from the pipe surface. Summary of the Invention

[0003] The problem this invention aims to solve is to remove ink markings from existing qualified pipes with inkjet printing, thereby improving the efficiency of ink marking removal.

[0004] To solve the above-mentioned technical problems, the technical solution of this utility model is: an automatic ink-printing code peeling fixture, including an external profile structure and a motor mounting and lifting structure. The external profile structure constitutes the external skeleton of the ink-printing code removal fixture. The external profile structure is fixedly connected by corner brackets. The motor mounting and lifting structure is connected to the external skeleton through a slide rail and a slide rail fixing plate. The motor mounting and lifting structure can slide up and down within the effective stroke of the slide rail. The external profile structure includes a first aluminum profile, a second aluminum profile, a third aluminum profile, a fourth aluminum profile, a fifth aluminum profile, a sixth aluminum profile, a seventh aluminum profile, an eighth aluminum profile, a ninth aluminum profile, a tenth aluminum profile, an eleventh aluminum profile, a twelfth aluminum profile, a thirteenth aluminum profile, and a fourteenth aluminum profile; corner brackets, guide grooves, a first connecting L-plate, and a second connecting L-plate; The third aluminum profile is fastened to the first, second, fifth, and thirteenth aluminum profiles using angle brackets, T-bolts, and nuts. The twelfth aluminum profile is fastened to the first, eleventh, fifth, and seventh aluminum profiles using angle brackets, T-bolts, and nuts. The eighth aluminum profile is fastened to the eleventh, tenth, seventh, and sixth aluminum profiles using angle brackets, T-bolts, and nuts. The fourteenth aluminum profile is fastened to the tenth, second, sixth, and thirteenth aluminum profiles using angle brackets, T-bolts, and nuts. The guide groove is fixedly connected to the front and rear two second connecting L plates. The front and rear two second connecting L plates are bolted to the fourth aluminum profile and the ninth aluminum profile. The relative position of the guide groove and the rotary cutter can be adjusted by sliding left and right on the fourth aluminum profile and the ninth aluminum profile to ensure the integrity of the cutting. The first connecting L-plates on both sides are fastened to the eighth and fourteenth aluminum profiles using T-bolts.

[0005] Furthermore, the motor mounting and lifting structure includes a slide rail connecting plate, a slide rail, a slider, a motor, a slider mounting plate, a first connecting plate, a second connecting plate, a third connecting plate, a first nut, a second nut, a lead screw, a handwheel, a diamond bearing, a rotary cutter, a third nut, a shaft, a base plate, a scale plate, and a protective sleeve; the sliders on both sides are slidably connected to the slide rail, the sliders on both sides are fastened to the slider mounting plates on both sides using bolts, and the slide rails on both sides are fastened to the slide rail connecting plates on both sides using bolts; The two side slide rail connecting plates are fastened to the third and fourteenth aluminum profiles using T-bolts; the second connecting plate is fastened to the two side slider mounting plates using bolts; the base plate is fastened to the two side slider mounting plates using bolts; the motor is fastened to the base plate using bolts; the diamond bearing is fastened to the second connecting plate using bolts; the lead screw is clamped to the diamond bearing using a set screw; the lead screw is slidably connected to the first and second nuts; the handwheel is fixedly connected to the lead screw; the first nut is fixedly connected to the third connecting plate; the third connecting plate is fastened to the fifth, sixth, and thirteenth aluminum profiles using T-bolts; the shaft is fastened to the motor; the rotary cutter is fastened to the shaft via the third nut; the scale plate is fixedly connected to the second connecting plate; and the protective sleeve is movably connected to the diamond bearing and the third connecting plate.

[0006] The beneficial effects of this utility model are as follows: This invention uses a motor-mounted lifting structure to lower the rotary cutter to the required height for removing ink marks from pipes of the appropriate size by rotating a handwheel. When the pipe passes through the guide groove, the motor is activated to remove the thin layer of ink marks on the pipe surface, thereby improving the efficiency of manual ink mark removal. Furthermore, by observing the position of the scale, it is possible to accurately remove ink marks from pipes of different diameters. Attached Figure Description

[0007] Figure 1 This is an assembly diagram of the present invention; Figure 2 This is a schematic diagram of the present invention; Figure 3 This is a diagram of the external skeleton of this utility model.

[0008] In the diagram: 1. First aluminum profile; 2. Second aluminum profile; 3. Angle bracket; 4. Third aluminum profile; 5. Slider connecting plate; 6. Slide rail; 7. Fourth aluminum profile; 8. Guide groove; 9. Tube; 10. Slider; 11. Motor; 12. Slider mounting plate; 13. First connecting plate; 14. Second connecting plate; 15. Fifth aluminum profile; 16. Third connecting plate; 17. First nut; 18. Second nut; 19. Lead screw; 20. Handwheel; 21. Sixth aluminum profile; 22. Diamond bearing; 23. Seventh aluminum profile; 24. Rotary cutter; 25. Third nut; 26. Shaft; 27. First connecting L-plate; 28. Eighth aluminum profile; 29. ​​Ninth aluminum profile; 30. Second connecting L-plate; 31. Tenth aluminum profile; 32. Eleventh aluminum profile; 33. Twelfth aluminum profile; 34. Thirteenth aluminum profile; 35. Base plate; 36. Fourteenth aluminum profile; 37. Scale plate; 38. Protective sleeve. Detailed Implementation

[0009] The preferred embodiments of the present invention will now be described in detail with reference to the accompanying drawings, so that the advantages and features of the present invention can be more easily understood by those skilled in the art, thereby making a clearer and more definite definition of the scope of protection of the present invention.

[0010] Please see Figures 1-3 An automatic ink-printing code peeling fixture includes an external profile structure and a motor mounting and lifting structure. The external profile structure forms the external skeleton of the ink-printing code removal fixture. The external profile structure includes a first aluminum profile 1, a second aluminum profile 2, a third aluminum profile 4, a fourth aluminum profile 7, a fifth aluminum profile 15, a sixth aluminum profile 21, a seventh aluminum profile 23, an eighth aluminum profile 28, a ninth aluminum profile 29, a tenth aluminum profile 31, an eleventh aluminum profile 32, a twelfth aluminum profile 33, a thirteenth aluminum profile 34, and a fourteenth aluminum profile 36; a corner bracket 3; a guide groove 8; a first connecting L-plate 27; and a second connecting L-plate 30.

[0011] The third aluminum profile 4 is fastened to the first aluminum profile 1, the second aluminum profile 2, the fifth aluminum profile 15, and the thirteenth aluminum profile 34 by means of corner brackets 3 using T-bolts and nuts.

[0012] The twelfth aluminum profile 33 is fastened to the first aluminum profile 1, the eleventh aluminum profile 31, the fifth aluminum profile 15, and the seventh aluminum profile 23 by means of corner brackets 3 using T-bolts and nuts.

[0013] The eighth aluminum profile 27 is fastened to the eleventh aluminum profile 31, the tenth aluminum profile 30, the seventh aluminum profile 23, and the sixth aluminum profile 21 by means of corner brackets 3 using T-bolts and nuts.

[0014] The fourteenth aluminum profile 35 is fastened to the tenth aluminum profile 30, the second aluminum profile 2, the sixth aluminum profile 21, and the thirteenth aluminum profile 34 by means of corner brackets 3 using T-bolts and nuts.

[0015] The guide groove 8 is fixedly connected to the front and rear two second connecting L plates 30. The front and rear two second connecting L plates 30 are bolted to the fourth aluminum profile 7 and the ninth aluminum profile 29, and can slide left and right on the fourth aluminum profile 7 and the ninth aluminum profile 29 to adjust their relative position with the rotary cutter 24, so as to ensure the integrity of the cutting.

[0016] The first connecting L plate 27 on both sides is fastened to the eighth aluminum profile 28 and the fourteenth aluminum profile 36 using T-bolts.

[0017] The above technical solution simplifies the construction and installation of the external profile structure, creating favorable conditions for the subsequent installation of the motor lifting structure and other external equipment.

[0018] Please see Figures 1-2 The motor mounting and lifting structure includes a slide rail connecting plate 5, a slide rail 6, a slider 10, a motor 11, a slider mounting plate 12, a first connecting plate 13, a second connecting plate 14, a third connecting plate 16, a first nut 17, a second nut 18, a lead screw 19, a handwheel 20, a diamond bearing 22, a rotary cutter 24, a third nut 25, a shaft 26, a base plate 35, a scale plate 37, and a protective sleeve 38. The sliders 10 on both sides are slidably connected to the slide rail 6, and the sliders 10 on both sides are fastened to the slider mounting plates 12 on both sides with bolts. The slide rails 6 on both sides are fastened to the slide rail connecting plates 5 on both sides with bolts.

[0019] The two side slide rail connecting plates 5 are fastened to the third aluminum profile 4 and the fourteenth aluminum profile 36 using T-bolts; the second connecting plate 14 is fastened to the two side slider mounting plates 12 using bolts; the base plate 35 is fastened to the two side slider mounting plates 12 using bolts; the motor 11 is fastened to the base plate 35 using bolts; the diamond bearing 22 is fastened to the second connecting plate 14 using bolts; the lead screw 19 is clamped to the diamond bearing 22 using a set screw; the lead screw 19 is fastened to the first nut 17 and the second screw... The mother 18 is slidably connected; the handwheel 20 is fixedly connected to the lead screw 19; the first nut 17 is fixedly connected to the third connecting plate 16; the third connecting plate 16 is fastened to the fifth aluminum profile 15, the sixth aluminum profile 21, and the thirteenth aluminum profile 34 using T-bolts; the shaft 26 is fastened to the motor 11; the rotary cutter 24 is fastened to the shaft 26 by the third nut 25; the scale plate 37 is fixedly connected to the second connecting plate 14; and the protective sleeve 38 is movably connected to the rhomboid bearing 22 and the third connecting plate 16.

[0020] The above technical solution solves the problem of adjusting the position of the motor installation lifting structure for different pipe materials, making it very convenient and efficient to adjust the height each time.

[0021] Automatic inkjet printing peeling tooling operation process First, insert the tube 9 into the guide groove 8. The handwheel 20 drives the lead screw 19, causing the entire assembly of the motor 11 and the rotary cutter 24 to move downwards until it can contact the surface of the tube 9. At this time, start the belt traction machine and the motor 11 of the inkjet automatic peeling fixture to send the tube 9 with the surface inkjet code to be removed into the inkjet automatic peeling fixture. After the tube 9 passes through the rotary cutter 24, observe the removal of the inkjet code on the surface of the tube 9. If it is not completely removed, the handwheel 20 needs to be rotated downwards by half a turn until the surface of the tube 9 can be cleaned. At this time, tighten the first nut 17 fixed on the third connecting plate 16 and the movable second nut 18 so that the lead screw 19 cannot be loosened and rotated, causing the entire assembly of the motor 11 and the rotary cutter 24 to move up and down arbitrarily, resulting in poor inkjet code removal.

[0022] Maintenance measures When removing the inkjet markings from the pipe surface, the rotary cutter remains in a fixed position. After each shift, a manual air gun is required to blow away any plastic debris from the lead screw and rotary cutter. The measuring ruler can adjust the cutting depth. The protective sleeve protects the lead screw from damage by debris, and lubricating oil is added to the lead screw to ensure smooth movement.

[0023] Any equivalent structural or procedural transformations made using the description and drawings of this utility model, or any direct or indirect applications in other related technical fields, are similarly included within the scope of patent protection of this utility model.

Claims

1. An automatic inkjet printing peeling fixture, comprising an external profile structure and a motor mounting and lifting structure, characterized in that: The external profile structure is fixedly connected by corner brackets; the motor mounting and lifting structure is connected to the external frame through slide rails and slide rail fixing plates, and the motor mounting and lifting structure can slide up and down within the effective stroke of the slide rails. The external profile structure includes a first aluminum profile (1), a second aluminum profile (2), a third aluminum profile (4), a fourth aluminum profile (7), a fifth aluminum profile (15), a sixth aluminum profile (21), a seventh aluminum profile (23), an eighth aluminum profile (28), a ninth aluminum profile (29), a tenth aluminum profile (31), an eleventh aluminum profile (32), a twelfth aluminum profile (33), a thirteenth aluminum profile (34), and a fourteenth aluminum profile (36); corner brackets (3), guide grooves (8), a first connecting L-plate (27), and a second connecting L-plate (30); The third aluminum profile (4) is fastened to the first aluminum profile (1), the second aluminum profile (2), the fifth aluminum profile (15), and the thirteenth aluminum profile (34) by means of corner brackets (3) using T-bolts and nuts; The twelfth aluminum profile (33) is fastened to the first aluminum profile (1), the eleventh aluminum profile (32), the fifth aluminum profile (15), and the seventh aluminum profile (23) by means of corner brackets (3) using T-bolts and nuts; The eighth aluminum profile (28) is fastened to the eleventh aluminum profile (32), the tenth aluminum profile (31), the seventh aluminum profile (23), and the sixth aluminum profile (21) by means of corner brackets (3) using T-bolts and nuts; The fourteenth aluminum profile (36) is fastened to the tenth aluminum profile (31), the second aluminum profile (2), the sixth aluminum profile (21), and the thirteenth aluminum profile (34) by means of corner brackets (3) using T-bolts and nuts; The guide groove (8) is fixedly connected to the front and rear two second connecting L plates (30), and the front and rear two second connecting L plates (30) are connected to the fourth aluminum profile (7) and the ninth aluminum profile (29) by bolts. The relative position of the cutting tool (24) can be adjusted by sliding left and right on the fourth aluminum profile (7) and the ninth aluminum profile (29) to ensure the integrity of the cutting. The first connecting L plate (27) on both sides is fastened to the eighth aluminum profile (28) and the fourteenth aluminum profile (36) using T-bolts.

2. The ink-jet code automatic peeling tool according to claim 1, characterized in that: The motor mounting and lifting structure includes a slide rail connecting plate (5), a slide rail (6), a slider (10), a motor (11), a slider mounting plate (12), a first connecting plate (13), a second connecting plate (14), a third connecting plate (16), a first nut (17), a second nut (18), a lead screw (19), a handwheel (20), a diamond bearing (22), a rotary cutter (24), a third nut (25), a shaft (26), a base plate (35), a scale plate (37), and a protective sleeve (38). The sliders (10) on both sides are slidably connected to the slide rail (6), the sliders (10) on both sides are fastened to the slider mounting plates (12) on both sides with bolts, and the slide rails (6) on both sides are fastened to the slide rail connecting plates (5) on both sides with bolts. The two side slide rail connecting plates (5) are fastened to the third aluminum profile (4) and the fourteenth aluminum profile (36) using T-bolts; the second connecting plate (14) is fastened to the two side slider mounting plates (12) using bolts; the base plate (35) is fastened to the two side slider mounting plates (12) using bolts; the motor (11) is fastened to the base plate (35) using bolts; the rhomboid bearing (22) is fastened to the second connecting plate (14) using bolts; the lead screw (19) is fastened to the rhomboid bearing (22) using a set screw clamping connection; the lead screw (19) is fastened to the first nut (17) and the second nut (18) The components are: a sliding connection; a fixed connection between the handwheel (20) and the lead screw (19); a fixed connection between the first nut (17) and the third connecting plate (16); a T-bolt fastening connection between the third connecting plate (16) and the fifth aluminum profile (15), the sixth aluminum profile (21), and the thirteenth aluminum profile (34); a fixed connection between the shaft (26) and the motor (11); a fixed connection between the rotary cutter (24) and the shaft (26) via the third nut (25); a fixed connection between the scale plate (37) and the second connecting plate (14); and a movable connection between the protective sleeve (38) and the rhomboid bearing (22) and the third connecting plate (16).

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