CN113427115A - Processing device and processing method for magnesium alloy sacrificial anode rod - Google Patents
Processing device and processing method for magnesium alloy sacrificial anode rod Download PDFInfo
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- CN113427115A CN113427115A CN202110707803.0A CN202110707803A CN113427115A CN 113427115 A CN113427115 A CN 113427115A CN 202110707803 A CN202110707803 A CN 202110707803A CN 113427115 A CN113427115 A CN 113427115A
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- rod
- magnesium alloy
- sacrificial anode
- alloy sacrificial
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- B—PERFORMING OPERATIONS; TRANSPORTING
- B23—MACHINE TOOLS; METAL-WORKING NOT OTHERWISE PROVIDED FOR
- B23K—SOLDERING OR UNSOLDERING; WELDING; CLADDING OR PLATING BY SOLDERING OR WELDING; CUTTING BY APPLYING HEAT LOCALLY, e.g. FLAME CUTTING; WORKING BY LASER BEAM
- B23K20/00—Non-electric welding by applying impact or other pressure, with or without the application of heat, e.g. cladding or plating
- B23K20/12—Non-electric welding by applying impact or other pressure, with or without the application of heat, e.g. cladding or plating the heat being generated by friction; Friction welding
- B23K20/122—Non-electric welding by applying impact or other pressure, with or without the application of heat, e.g. cladding or plating the heat being generated by friction; Friction welding using a non-consumable tool, e.g. friction stir welding
- B23K20/1245—Non-electric welding by applying impact or other pressure, with or without the application of heat, e.g. cladding or plating the heat being generated by friction; Friction welding using a non-consumable tool, e.g. friction stir welding characterised by the apparatus
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- B—PERFORMING OPERATIONS; TRANSPORTING
- B23—MACHINE TOOLS; METAL-WORKING NOT OTHERWISE PROVIDED FOR
- B23K—SOLDERING OR UNSOLDERING; WELDING; CLADDING OR PLATING BY SOLDERING OR WELDING; CUTTING BY APPLYING HEAT LOCALLY, e.g. FLAME CUTTING; WORKING BY LASER BEAM
- B23K20/00—Non-electric welding by applying impact or other pressure, with or without the application of heat, e.g. cladding or plating
- B23K20/12—Non-electric welding by applying impact or other pressure, with or without the application of heat, e.g. cladding or plating the heat being generated by friction; Friction welding
- B23K20/122—Non-electric welding by applying impact or other pressure, with or without the application of heat, e.g. cladding or plating the heat being generated by friction; Friction welding using a non-consumable tool, e.g. friction stir welding
- B23K20/1245—Non-electric welding by applying impact or other pressure, with or without the application of heat, e.g. cladding or plating the heat being generated by friction; Friction welding using a non-consumable tool, e.g. friction stir welding characterised by the apparatus
- B23K20/126—Workpiece support, i.e. backing or clamping
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Abstract
The invention discloses a processing device and a processing method of a magnesium alloy sacrificial anode rod, and relates to the technical field of processing of magnesium alloy sacrificial anode rods. The invention comprises a first motor, a three-jaw chuck, a nut and a magnesium alloy sacrificial anode rod main body, wherein the three-jaw chuck is arranged at the output end of the first motor. According to the invention, through the design of the auxiliary friction welding device, the device is convenient for performing multi-angle reciprocating hammering in the friction welding processing process of the magnesium alloy sacrificial anode rod, so that the friction welding processing effect and the forming stability of the magnesium alloy sacrificial anode rod are further improved, and through the design of the automatic clamping anti-shaking and anti-falling feeding device, the device is convenient for performing anti-shaking and anti-falling automatic positioning on the magnesium alloy sacrificial anode rod in the processing process of the magnesium alloy sacrificial anode rod, so that the processing of the magnesium alloy sacrificial anode rod is facilitated, and the processing forming rate is improved.
Description
Technical Field
The invention relates to the technical field of processing of magnesium alloy sacrificial anode rods, in particular to a processing device and a processing method of a magnesium alloy sacrificial anode rod.
Background
In order to solve the problems that the welding seam structures of a rod core and a screw plug are not tight, the gap between a magnesium anode rod and a mounting nut is not tight and the like when the magnesium alloy sacrificial anode is manufactured, the conventional magnesium alloy sacrificial anode rod and a nut joint are connected by adopting continuous driving friction welding, the production efficiency of the magnesium alloy sacrificial anode rod is improved, the production cost is reduced, and the service life is prolonged.
Disclosure of Invention
The invention aims to provide a processing device and a processing method of a magnesium alloy sacrificial anode rod, which aim to solve the existing problems: when the friction welding is carried out on the magnesium alloy sacrificial anode rod, the whole welding process is slow and the effect is not ideal due to the lack of automatic reciprocating hammering required in the friction welding process.
In order to achieve the purpose, the invention provides the following technical scheme: the utility model provides a processingequipment of magnesium alloy sacrificial anode stick, includes first motor, three-jaw chuck, nut and magnesium alloy sacrificial anode stick main part, the output of first motor is provided with the three-jaw chuck, the inboard clamping of three-jaw chuck has the nut, the one end of nut is cup jointed in the outside of magnesium alloy sacrificial anode stick main part, still includes
The auxiliary friction welding device is positioned on the peripheral side face of one end of the screw cap, the screw cap is attached to the inner side of the auxiliary friction welding device, and the auxiliary friction welding device is used for providing stable reciprocating hammering pressure to the screw cap and the magnesium alloy sacrificial anode rod main body in the friction welding process;
automatic press from both sides tight anti-shake material feeding unit that drops, automatic press from both sides tight anti-shake material feeding unit that drops and be located the other end of magnesium alloy sacrificial anode stick main part, automatic press from both sides tight anti-shake material feeding unit that drops and magnesium alloy sacrificial anode stick main part joint is connected, automatic press from both sides tight anti-shake material feeding unit that drops and be used for forming the automated processing anti-drop clamp to magnesium alloy sacrificial anode stick main part tightly.
Preferably, the auxiliary friction welding device comprises a carrying support base, a reciprocating hammering driving guide output structure and an anti-counterforce type contact hammering structure, a plurality of reciprocating hammering driving guide output structures are fixed on the circumferential side surface of the inner side of the carrying support base, and one end of each reciprocating hammering driving guide output structure is fixedly connected with the anti-counterforce type contact hammering structure through a screw.
Preferably, the reciprocating hammer pressing and moving guide output structure comprises a carrying base plate, a guide polished rod, a first spring, a first moving guide carrying block, a second motor, a screw rod, a limit polished rod, a linkage push block and a second moving guide carrying block, wherein the guide polished rod is fixedly connected to two sides of the top end of the carrying base plate, the first spring is arranged at one end of the guide polished rod, the second moving guide carrying block and the first moving guide carrying block are fixed to one end of the bottom end of the carrying base plate, the first moving guide carrying block is positioned at the lower end of the second moving guide carrying block, one side of the first moving guide carrying block is fixedly connected with the second motor through a screw, the output end of the second motor is fixedly connected with the screw rod, the other side of the screw rod is rotatably connected with the first moving guide carrying block, two limit polished rods are further welded to the inner side of the first moving guide carrying block, and are positioned at the top end and the bottom end of the screw rod, the outer side of the limiting polished rod is connected with a linkage push block in a sliding mode, and the inner side of the linkage push block is connected with the screw rod through threads.
Preferably, the reciprocating hammer pressure guide output structure further comprises a toggle rack, a pushing gear shaft, an eccentric pushing guide plate and an assembling positioning pin, the inner side of the second movable guide carrying block is connected with the toggle rack in a sliding mode, one end of the toggle rack is connected with the linkage pushing block in a welding mode, one end of the second movable guide carrying block is connected with the pushing gear shaft in a rotating mode, the pushing gear shaft is connected with the toggle rack in a meshing mode, the eccentric pushing guide plate is arranged at the top end of the pushing gear shaft, the top end of the eccentric pushing guide plate is connected with an assembling rod in a rotating mode, and the top end of one side of the assembling rod is connected with the assembling positioning pin in a rotating mode.
Preferably, the anti-counterforce type contact hammering structure comprises a loading clamping plate, a loading supporting seat, a bidirectional loading guide rod, a second spring and a sliding loading push block, wherein the outer side of the guide polished rod is in sliding connection with the loading clamping plate, the top end of the loading positioning pin is in rotating connection with the loading clamping plate, the loading supporting seat is welded on two sides of one end of the loading clamping plate, the bidirectional loading guide rod is welded on the inner side of one end of the loading supporting seat, the sliding loading push block is connected on the outer side of the top end of the bidirectional loading guide rod and the outer side of the bottom end of the bidirectional loading guide rod in a sliding connection mode, and the second spring is arranged at the position, far away from the sliding loading push block, of the top end and the bottom end of the bidirectional loading guide rod.
Preferably, the anti-counterforce type contact hammering structure further comprises a secondary component force push rod, a primary component force push rod, a center derivation press rod and a hammering contact block, one side of the sliding force-unloading push block is rotatably connected with the secondary component force push rod, the inner sides of the top ends of the two secondary component force push rods are rotatably connected with the primary component force push rod, the primary component force push rod is fixedly connected with the two sides of the center derivation press rod, the hammering contact block is welded at one end of the center derivation press rod, and one end of the hammering contact block is attached to the nut.
Preferably, automatic press from both sides tight anti-shake material feeding unit that drops is including processing derivation structure and automatic tight limit structure that presss from both sides, the one end fixedly connected with automatic tight limit structure that presss from both sides of structure is derived in processing.
Preferably, the structure is derived in processing is including supporting year post, third and moving and lead and carry on piece, third motor and driving gear shaft, the top fixedly connected with third that supports year post moves and leads and carry on the piece, screw fixedly connected with third motor is passed through to one side that the third moved and leads and carry on the piece, the output fixedly connected with driving gear shaft of third motor, the inboard sliding connection that supports year post has linkage rack post, the top of linkage rack post is connected with the bottom meshing of driving gear shaft.
Preferably, the automatic clamping and limiting structure comprises a limiting sleeve, an extension clamping plate, a C-shaped positioning plate, a fourth motor, a shifting shaft sleeve, a clamping hoop, an anti-shake supporting base, a third spring and a limiting contact piece, extension clamping plates are welded on two sides of the limiting sleeve, a C-shaped positioning plate is welded at one end of each extension clamping plate, the top end of the C-shaped positioning plate is fixedly connected with a fourth motor through a screw, the output end of the fourth motor is fixedly connected with a closed driving rod, a toggle shaft sleeve is sleeved on the outer side of the closed driving rod, one end of the toggle shaft sleeve is welded with a clamping hoop, a plurality of anti-shake supporting bases are welded on the inner wall of the clamping hoop, a third spring is welded on one side of each anti-shake supporting base, and one side of the third spring is welded with a limit contact piece, and the limit contact piece is attached to the outer side of the magnesium alloy sacrificial anode rod main body.
A processing method of a processing device of a magnesium alloy sacrificial anode rod comprises the following steps:
the first step is as follows: fixing the magnesium alloy sacrificial anode rod main body through an automatic clamping anti-shake falling feeding device;
secondly, the following steps: one end of the nut is clamped and fixed through a three-jaw chuck;
the third step: inserting one end of the magnesium alloy sacrificial anode rod main body into the nut by controlling the automatic clamping anti-shake falling feeding device;
the fourth step: starting a first motor to drive the three-jaw chuck, so that the three-jaw chuck can drive the nut at a high speed, and the nut and the magnesium alloy sacrificial anode rod body are rubbed to form friction welding;
the fifth step: and stably hammering the friction welding joint of the screw cap and the magnesium alloy sacrificial anode rod main body in a reciprocating manner through the auxiliary friction welding device to complete the connection of the magnesium alloy sacrificial anode rod main body and the screw cap.
Compared with the prior art, the invention has the beneficial effects that:
1. according to the invention, through the design of the auxiliary friction welding device, the device is convenient for performing multi-angle reciprocating hammering in the friction welding processing process of the magnesium alloy sacrificial anode rod, so that the friction welding processing effect and the forming stability of the magnesium alloy sacrificial anode rod are further improved;
2. according to the invention, through the design of the automatic clamping anti-shaking and anti-falling feeding device, the device is convenient for completing the automatic positioning of shaking and falling prevention of the magnesium alloy sacrificial anode rod in the processing process of the magnesium alloy sacrificial anode rod, thereby facilitating the processing of the magnesium alloy sacrificial anode rod and improving the processing forming rate.
Drawings
In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the drawings used in the description of the embodiments will be briefly introduced below, and it is obvious that the drawings in the following description are only some embodiments of the present invention, and it is obvious for those skilled in the art that other drawings can be obtained according to the drawings without creative efforts.
FIG. 1 is a schematic structural view of the present invention as a whole;
FIG. 2 is a side view of the present invention in its entirety;
FIG. 3 is a side view of the auxiliary friction welding apparatus of the present invention;
FIG. 4 is a schematic view of a partial structure of an auxiliary friction welding apparatus according to the present invention;
FIG. 5 is a schematic view of a partial structure of a reciprocating hammer pressing guide output structure according to the present invention;
FIG. 6 is a schematic view of a partial structure of the anti-counterforce type contact hammering structure of the present invention;
FIG. 7 is a schematic view of a portion of a machined derivative structure according to the present invention;
fig. 8 is a partial structural schematic view of the automatic clamping and limiting structure of the invention.
In the figure: 1. a first motor; 2. a three-jaw chuck; 3. a nut; 4. a magnesium alloy sacrificial anode rod body; 5. an auxiliary friction welding device; 6. an automatic clamping anti-shake falling feeding device; 7. carrying a support base; 8. the reciprocating hammer presses the movable guide output structure; 9. a counter-force-resisting type contact hammering structure; 10. a mounting substrate; 11. a guide polish rod; 12. a first spring; 13. a first movable guide carrying block; 14. a second motor; 15. a screw; 16. a limit polished rod; 17. linkage push block; 18. a second movable guide carrying block; 19. shifting the rack; 20. deducing a gear shaft; 21. an eccentric push guide plate; 22. assembling a positioning pin; 23. assembling a clamping plate; 24. a force-unloading supporting seat; 25. a bidirectional force-unloading guide rod; 26. a second spring; 27. sliding the force-unloading push block; 28. a secondary component force push rod; 29. a primary component force push rod; 30. a central derivation pressure lever; 31. hammering the contact block; 32. supporting the load bearing column; 33. a third movable guide carrying block; 34. a third motor; 35. a driving gear shaft; 36. a linkage rack post; 37. a limiting sleeve; 38. extending the clamping plate; 39. a C-shaped positioning plate; 40. a fourth motor; 41. shifting the shaft sleeve; 42. clamping a hoop; 43. an anti-shake support base; 44. a third spring; 45. and a limiting contact piece.
Detailed Description
The technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the drawings in the embodiments of the present invention, and it is obvious that the described embodiments are only a part of the embodiments of the present invention, and not all of the embodiments.
The first embodiment is as follows:
please refer to fig. 1-2:
the utility model provides a processingequipment of magnesium alloy sacrificial anode stick, includes first motor 1, three-jaw chuck 2, nut 3 and magnesium alloy sacrificial anode stick main part 4, and the output of first motor 1 is provided with three-jaw chuck 2, and the inboard clamping of three-jaw chuck 2 has nut 3, and the one end of nut 3 is cup jointed in the outside of magnesium alloy sacrificial anode stick main part 4, still includes
The auxiliary friction welding device 5 is positioned on the peripheral side face of one end of the screw cap 3, the screw cap 3 is attached to the inner side of the auxiliary friction welding device 5, and the auxiliary friction welding device 5 is used for forming stable reciprocating hammering pressure in the friction welding process of the screw cap 3 and the magnesium alloy sacrificial anode rod main body 4;
the automatic clamping anti-shaking and anti-falling feeding device 6 is located at the other end of the magnesium alloy sacrificial anode rod main body 4, the automatic clamping anti-shaking and anti-falling feeding device 6 is connected with the magnesium alloy sacrificial anode rod main body 4 in a clamping mode, and the automatic clamping anti-shaking and anti-falling feeding device 6 is used for forming automatic machining anti-falling clamping for the magnesium alloy sacrificial anode rod main body 4.
Please refer to fig. 3-6:
the auxiliary friction welding device 5 comprises a carrying support base 7, a reciprocating hammering movement guide output structure 8 and an anti-counterforce type contact hammering structure 9, wherein a plurality of reciprocating hammering movement guide output structures 8 are fixed on the circumferential side surface of the inner side of the carrying support base 7, and one end of each reciprocating hammering movement guide output structure 8 is fixedly connected with the anti-counterforce type contact hammering structure 9 through a screw;
the reciprocating hammer pressing and moving guide output structure 8 comprises a carrying base plate 10, a guide polished rod 11, a first spring 12, a first moving guide carrying block 13, a second motor 14, a screw rod 15, a limit polished rod 16, a linkage push block 17 and a second moving guide carrying block 18, wherein the guide polished rod 11 is fixedly connected to two sides of the top end of the carrying base plate 10, the first spring 12 is arranged at one end of the guide polished rod 11, the second moving guide carrying block 18 and the first moving guide carrying block 13 are fixed to one end of the bottom end of the carrying base plate 10, the first moving guide carrying block 13 is positioned at the lower end of the second moving guide carrying block 18, the second motor 14 is fixedly connected to one side of the first moving guide carrying block 13 through a screw, the screw rod 15 is fixedly connected to the output end of the second motor 14, the other side of the screw rod 15 is rotatably connected with the first moving guide carrying block 13, two limit polished rods 16 are welded to the inner side of the first moving guide carrying block 13, the limit polished rods 16 are positioned at the top end and the bottom end of, the outer side of the limiting polished rod 16 is connected with a linkage push block 17 in a sliding manner, and the inner side of the linkage push block 17 is connected with the screw 15 through threads;
the reciprocating hammer pressing guide output structure 8 further comprises a toggle rack 19, a derivation gear shaft 20, an eccentric push guide plate 21 and an assembly positioning pin 22, the inner side of the second movable guide carrying block 18 is connected with the toggle rack 19 in a sliding mode, one end of the toggle rack 19 is connected with the linkage push block 17 in a welding mode, one end of the second movable guide carrying block 18 is connected with the derivation gear shaft 20 in a rotating mode, the derivation gear shaft 20 is connected with the toggle rack 19 in a meshing mode, the top end of the derivation gear shaft 20 is provided with the eccentric push guide plate 21, the top end of the eccentric push guide plate 21 is connected with an assembly rod in a rotating mode, and the top end of one side of the assembly rod is connected with the assembly positioning pin 22 in a rotating mode;
the anti-counterforce type contact hammering structure 9 comprises an assembling clamping plate 23, an unloading supporting seat 24, a bidirectional unloading guide rod 25, a second spring 26 and a sliding unloading push block 27, wherein the outer side of a guide polished rod 11 is connected with the assembling clamping plate 23 in a sliding manner, the top end of an assembling positioning pin 22 is connected with the assembling clamping plate 23 in a rotating manner, the unloading supporting seat 24 is welded on two sides of one end of the assembling clamping plate 23, the bidirectional unloading guide rod 25 is welded on the inner side of one end of the unloading supporting seat 24, the sliding unloading push block 27 is connected on the outer side of the top end and the outer side of the bottom end of the bidirectional unloading guide rod 25 in a sliding manner, and the second spring 26 is arranged at the position, far away from the sliding unloading push block 27, of the top end and the bottom end of the bidirectional unloading guide rod 25;
the anti-counterforce type contact hammering structure 9 further comprises a secondary component force push rod 28, a primary component force push rod 29, a center derivation press rod 30 and a hammering contact block 31, wherein one side of the sliding force-unloading push block 27 is rotatably connected with the secondary component force push rod 28, the inner sides of the top ends of the two secondary component force push rods 28 are rotatably connected with the primary component force push rod 29, the primary component force push rod 29 is fixedly connected with two sides of the center derivation press rod 30, one end of the center derivation press rod 30 is welded with the hammering contact block 31, and one end of the hammering contact block 31 is attached to the nut 3;
the torque output of the second motor 14 is guided out to the linkage push block 17 by controlling the second motor 14 to form forward and reverse rotation reciprocating torque output, the torque output of the linkage push block 17 is limited to form reciprocating sliding displacement by the screw 15, so that the toggle rack 19 is driven to synchronously slide in the second movable guide carrying block 18 by utilizing the sliding connection of the linkage push block 17 and the limiting polished rod 16, the derivation gear shaft 20 is toggled by the toggle rack 19 to form rotation by utilizing the meshing of the toggle rack 19 and the derivation gear shaft 20, the eccentric push guide plate 21 is in an eccentric design and has a farthest end and a nearest end under rotation, the motion track is guided out to the assembly clamping plate 23 by utilizing the assembly positioning pin 22, the stable derivation of the clamping plate 23 to the press-connection contact assembling block 31 is realized by utilizing the sliding connection of the assembly clamping plate 23 and the guiding polished rod 11, and the anti-counterforce type contact hammer pressing structure 9 and the reciprocating hammer pressing driving output structure 8 are in a symmetrical design, therefore, the motion track led out by the eccentric push-guide plate 21 is not influenced by the forward and reverse rotation of the derivation gear shaft 20, and stable continuous hammering on the friction welding position of the screw cap 3 and the magnesium alloy sacrificial anode rod main body 4 can be realized, so that the friction welding is rapidly finished;
the counter force of the hammer pressing contact block 31 is conveniently transmitted by the central derivation pressure lever 30 through the first component force push rod 29 in a diversion way, after the first component force is formed, the second component force push rod 28 is extruded by the first component force push rod 29, so that the second component force push rod 28 pushes the sliding force-unloading push block 27 to slide again at the two-way force-unloading guide rod 25 to form the second component force, finally the force is extruded to the second spring 26, and the counter force of the hammer pressing contact block 31 is counteracted by the elastic potential energy generated by the extrusion of the second spring 26;
please refer to fig. 7-8:
the automatic clamping anti-shake falling-off feeding device 6 comprises a processing derivation structure and an automatic clamping limiting structure, wherein one end of the processing derivation structure is fixedly connected with the automatic clamping limiting structure;
the machining derivation structure comprises a support carrying column 32, a third movable guide carrying block 33, a third motor 34 and a driving gear shaft 35, wherein the top end of the support carrying column 32 is fixedly connected with the third movable guide carrying block 33, one side of the third movable guide carrying block 33 is fixedly connected with the third motor 34 through a screw, the output end of the third motor 34 is fixedly connected with the driving gear shaft 35, the inner side of the support carrying column 32 is slidably connected with a linkage rack column 36, and the top end of the linkage rack column 36 is meshed and connected with the bottom end of the driving gear shaft 35;
the automatic clamping and limiting structure comprises a limiting sleeve 37, an extending clamping plate 38, a C-shaped positioning plate 39, a fourth motor 40, a toggle shaft sleeve 41, a clamping hoop 42, an anti-shake supporting base 43, a third spring 44 and a limiting contact piece 45, extension cardboard 38 has all been welded to the both sides of spacing sleeve 37, the one end welding of extension cardboard 38 has C type locating plate 39, screw fixedly connected with fourth motor 40 is passed through on the top of C type locating plate 39, the output fixedly connected with closed drive rod of fourth motor 40, stirring shaft sleeve 41 has been cup jointed in the outside of closed drive rod, stirring shaft sleeve 41's one end welding has clamping hoop 42, clamping hoop 42's inner wall welding has a plurality of anti-shake support base 43, the welding of one side of anti-shake support base 43 has third spring 44, the welding of one side of third spring 44 has spacing contact piece 45, spacing contact piece 45 is laminated with the outside of magnesium alloy sacrificial anode rod main part 4.
When the magnesium alloy sacrificial anode rod main body 4 is positioned, one end of the magnesium alloy sacrificial anode rod main body 4 is inserted into the limiting sleeve 37, the fourth motor 40 is controlled to complete torque output to the closed driving rod, the closed driving rod is used for driving the shifting shaft sleeve 41 to complete rotation, so that the shifting shaft sleeve 41 is deduced to form bilateral displacement clamping on the magnesium alloy sacrificial anode rod main body 4, the limiting contact piece 45 is attached to the magnesium alloy sacrificial anode rod main body 4 to form clamping limiting, the swinging stress generated in the machining process is led to the third spring 44 by using the limiting contact piece 45, the elastic potential energy generated by stress compression of the third spring 44 is used for counteracting the swinging generated in the machining of the magnesium alloy sacrificial anode rod main body 4, the magnesium alloy sacrificial anode rod main body 4 is stabilized, the magnesium alloy sacrificial anode rod main body 4 is prevented from swinging and falling due to stress, and the driving gear shaft 35 is driven by the third motor 34 to complete rotation, the driving gear shaft 35 is used for driving the linkage rack column 36 to push the magnesium alloy sacrificial anode rod main body 4 to be close to the screw cap 3 under the guiding and limiting of the supporting load column 32, and the feeding before friction processing is completed.
Example two:
the processing method of the processing device of the magnesium alloy sacrificial anode rod is used for the above embodiment and comprises the following steps:
the first step is as follows: fixing the magnesium alloy sacrificial anode rod main body through an automatic clamping anti-shake falling feeding device;
secondly, the following steps: one end of the nut is clamped and fixed through a three-jaw chuck;
the third step: inserting one end of the magnesium alloy sacrificial anode rod main body into the nut by controlling the automatic clamping anti-shake falling feeding device;
the fourth step: starting a first motor to drive the three-jaw chuck, so that the three-jaw chuck can drive the nut at a high speed, and the nut and the magnesium alloy sacrificial anode rod body are rubbed to form friction welding;
the fifth step: and stably hammering the friction welding joint of the screw cap and the magnesium alloy sacrificial anode rod main body in a reciprocating manner through the auxiliary friction welding device to complete the connection of the magnesium alloy sacrificial anode rod main body and the screw cap.
It will be evident to those skilled in the art that the invention is not limited to the details of the foregoing illustrative embodiments, and that the present invention may be embodied in other specific forms without departing from the spirit or essential attributes thereof. The present embodiments are therefore to be considered in all respects as illustrative and not restrictive, the scope of the invention being indicated by the appended claims rather than by the foregoing description, and all changes which come within the meaning and range of equivalency of the claims are therefore intended to be embraced therein. Any reference sign in a claim should not be construed as limiting the claim concerned.
Claims (10)
1. The utility model provides a processingequipment of magnesium alloy sacrificial anode stick, includes first motor (1), three-jaw chuck (2), nut (3) and magnesium alloy sacrificial anode stick main part (4), the output of first motor (1) is provided with three-jaw chuck (2), the inboard clamping of three-jaw chuck (2) has nut (3), the outside in magnesium alloy sacrificial anode stick main part (4) is cup jointed to the one end of nut (3), its characterized in that: also comprises
The auxiliary friction welding device (5) is positioned on the peripheral side face of one end of the nut (3), the nut (3) is attached to the inner side of the auxiliary friction welding device (5), and the auxiliary friction welding device (5) is used for providing stable reciprocating hammering pressure in the friction welding process of the nut (3) and the magnesium alloy sacrificial anode rod main body (4);
automatic change and press from both sides tight anti-shake material feeding unit (6) that drops, automatic change presss from both sides tight anti-shake material feeding unit (6) that drops and is located the other end of magnesium alloy sacrificial anode stick main part (4), automatic change presss from both sides tight anti-shake material feeding unit (6) that drops and is connected with magnesium alloy sacrificial anode stick main part (4) joint, automatic change presss from both sides tight anti-shake material feeding unit (6) that drops and is used for forming the automated processing anti-drop clamp tight to magnesium alloy sacrificial anode stick main part (4).
2. The processing device of the magnesium alloy sacrificial anode rod according to claim 1, characterized in that: supplementary friction welding set (5) are including carrying on supporting pedestal (7), reciprocal hammering and move lead output structure (8) and prevent reverse-force formula contact hammering structure (9), be fixed with a plurality of reciprocal hammers and move lead output structure (8) on the week side of carrying on supporting pedestal (7) inboard, reciprocal hammering moves the one end of leading output structure (8) and prevents reverse-force formula contact hammering structure (9) through screw fixed connection.
3. The processing device of the magnesium alloy sacrificial anode rod as claimed in claim 2, wherein: the reciprocating hammer pressing and guiding output structure (8) comprises a carrying substrate (10), a guide polished rod (11), a first spring (12), a first movable guide carrying block (13), a second motor (14), a screw (15), a limiting polished rod (16), a linkage push block (17) and a second movable guide carrying block (18), wherein the two sides of the top end of the carrying substrate (10) are fixedly connected with the guide polished rod (11), one end of the guide polished rod (11) is provided with the first spring (12), one end of the bottom end of the carrying substrate (10) is fixedly provided with the second movable guide carrying block (18) and the first movable guide carrying block (13), the first movable guide carrying block (13) is positioned at the lower end of the second movable guide carrying block (18), one side of the first movable guide carrying block (13) is fixedly connected with the second motor (14) through a screw, the output of the second motor (14) is connected with the screw (15), the opposite side of screw rod (15) is connected with first leading and is carried piece (13) rotation, the inboard of first leading and carrying piece (13) that moves has still welded two spacing polished rods (16), spacing polished rod (16) are located the top and the bottom of screw rod (15), the outside sliding connection of spacing polished rod (16) has linkage ejector pad (17), the inboard and the screw rod (15) of linkage ejector pad (17) pass through threaded connection.
4. The processing device of the magnesium alloy sacrificial anode rod according to claim 3, characterized in that: the reciprocating hammer pressing guide output structure (8) further comprises a toggle rack (19), a derivation gear shaft (20), an eccentric push guide plate (21) and an assembly positioning pin (22), the inner side of the second movable guide carrying block (18) is connected with the toggle rack (19) in a sliding mode, one end of the toggle rack (19) is connected with the linkage push block (17) in a welding mode, one end of the second movable guide carrying block (18) is connected with the derivation gear shaft (20) in a rotating mode, the derivation gear shaft (20) is connected with the toggle rack (19) in a meshing mode, the eccentric push guide plate (21) is arranged at the top end of the derivation gear shaft (20), the top end of the eccentric push guide plate (21) is connected with an assembly rod in a rotating mode, and the top end of one side of the assembly rod is connected with the assembly positioning pin (22) in a rotating mode.
5. The processing device of the magnesium alloy sacrificial anode rod as claimed in claim 4, wherein: the anti-counterforce type contact hammering structure (9) comprises a matching clamping plate (23), a force unloading supporting seat (24), a two-way force unloading guide rod (25), a second spring (26) and a sliding force unloading push block (27), the outer side of a guide polished rod (11) is in sliding connection with the matching clamping plate (23), the top end of a matching positioning pin (22) is in rotating connection with the matching clamping plate (23), the force unloading supporting seat (24) is welded on the two sides of one end of the matching clamping plate (23), the two-way force unloading guide rod (25) is welded on the inner side of one end of the force unloading supporting seat (24), the sliding force unloading push block (27) is connected on the outer side of the top end of the two-way force unloading guide rod (25) and the outer side of the bottom end of the two-way force unloading guide rod (25) in a sliding mode, and the second spring (26) is arranged at the position, far away from the sliding force unloading push block (27), of the top end and the bottom end of the two-way force unloading guide rod (25).
6. The processing device of the magnesium alloy sacrificial anode rod as claimed in claim 5, wherein: prevent that counterforce formula contact hammering structure (9) still includes secondary component push rod (28), primary component push rod (29), center and derives depression bar (30) and hammer pressure contact piece (31), one side rotation that the power ejector pad (27) was unloaded in the slip is connected with secondary component push rod (28), two the inboard rotation on secondary component push rod (28) top is connected with primary component push rod (29), both sides fixed connection of depression bar (30) is derived with the center in primary component push rod (29), the one end welding of depression bar (30) is derived at the center has hammer pressure contact piece (31), the one end and the nut (3) laminating of hammer pressure contact piece (31).
7. The processing device of the magnesium alloy sacrificial anode rod according to claim 1, characterized in that: the automatic clamping anti-shaking and anti-falling feeding device (6) comprises a processing derivation structure and an automatic clamping limiting structure, wherein the automatic clamping limiting structure is fixedly connected to one end of the processing derivation structure.
8. The processing device of the magnesium alloy sacrificial anode rod according to claim 7, characterized in that: the structure is derived in processing is including supporting year post (32), third and moving and lead and carry on piece (33), third motor (34) and driving gear shaft (35), the top fixedly connected with third that supports year post (32) moves and leads and carry on piece (33), the third moves and leads one side of carrying on piece (33) and passes through screw fixedly connected with third motor (34), the output fixedly connected with driving gear shaft (35) of third motor (34), the inboard sliding connection that supports year post (32) has linkage rack post (36), the top of linkage rack post (36) is connected with the bottom meshing of driving gear shaft (35).
9. The apparatus for processing the sacrificial anode bar of magnesium alloy according to claim 8, wherein: the automatic clamping limiting structure comprises a limiting sleeve (37), an extending clamping plate (38), a C-shaped positioning plate (39), a fourth motor (40), a shifting shaft sleeve (41), a clamping hoop (42), an anti-shaking supporting base (43), a third spring (44) and a limiting contact piece (45), wherein the extending clamping plate (38) is welded on two sides of the limiting sleeve (37), the C-shaped positioning plate (39) is welded on one end of the extending clamping plate (38), the fourth motor (40) is fixedly connected on the top end of the C-shaped positioning plate (39) through a screw, a closed driving rod is fixedly connected at the output end of the fourth motor (40), the shifting shaft sleeve (41) is sleeved on the outer side of the closed driving rod, the clamping hoop (42) is welded on one end of the shifting shaft sleeve (41), and the anti-shaking supporting bases (43) are welded on the inner wall of the clamping hoop (42), a third spring (44) is welded on one side of the anti-shake supporting base (43), a limiting contact piece (45) is welded on one side of the third spring (44), and the limiting contact piece (45) is attached to the outer side of the magnesium alloy sacrificial anode rod main body (4).
10. A processing method of a processing device of a magnesium alloy sacrificial anode rod, which is used for the processing device of the magnesium alloy sacrificial anode rod of any one of the preceding claims, and is characterized in that: the method comprises the following steps:
the first step is as follows: the magnesium alloy sacrificial anode rod main body (4) is fixed through an automatic clamping anti-shake falling feeding device (6);
secondly, the following steps: one end of the nut (3) is clamped and fixed through the three-jaw chuck (2);
the third step: one end of the magnesium alloy sacrificial anode rod main body (4) is inserted into the nut (3) by controlling the automatic clamping anti-shake falling feeding device (6);
the fourth step: the first motor (1) is started to drive the three-jaw chuck (2), so that the three-jaw chuck (2) drives the nut (3) at a high speed, the nut (3) and the magnesium alloy sacrificial anode rod main body (4) rub with each other, and friction welding is formed;
the fifth step: and stable reciprocating hammering is carried out on the friction welding joint of the screw cap (3) and the magnesium alloy sacrificial anode rod main body (4) through the auxiliary friction welding device (5), and the connection of the magnesium alloy sacrificial anode rod main body (4) and the screw cap (3) is completed.
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| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202110707803.0A CN113427115A (en) | 2021-06-25 | 2021-06-25 | Processing device and processing method for magnesium alloy sacrificial anode rod |
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| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202110707803.0A CN113427115A (en) | 2021-06-25 | 2021-06-25 | Processing device and processing method for magnesium alloy sacrificial anode rod |
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| CN113427115A true CN113427115A (en) | 2021-09-24 |
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Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN114289665A (en) * | 2021-11-15 | 2022-04-08 | 常山县鑫龙轴承有限公司 | Sorting equipment for bearing forging |
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2021
- 2021-06-25 CN CN202110707803.0A patent/CN113427115A/en not_active Withdrawn
Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN114289665A (en) * | 2021-11-15 | 2022-04-08 | 常山县鑫龙轴承有限公司 | Sorting equipment for bearing forging |
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Application publication date: 20210924 |