Surface treatment equipment for metal part of coupler

Abstract

The invention relates to the technical field of high-frequency quenching, in particular to metal part surface treatment equipment for a coupler, which comprises the coupler, a flat supporting shaft, a high-frequency heating unit, a spray head, a water heater, a wheel control device, a pressurizing assembly, an equipment plate and a long shaft group, in addition, the back faces of the high-frequency coils are not provided with magnetic resistance design, heating pieces with water flowing inside are installed, the back faces of the high-frequency coils heat the flowing water, and warm water is generated and injected into a spray head, so that heat dissipation of the high-frequency coils is achieved. In the process that the high-frequency coil is away from the coupler, the multiple sets of heating pieces are folded, then each set of heating pieces are oppositely inserted into a gap of a parallel section on the high-frequency coil after being folded, and therefore the high-frequency coil can be away from the coupler smoothly.

Description

Technical Field

[0001] The present invention relates to the technical field of high-frequency quenching, and particularly to a surface treatment device for metal parts of a coupling. Background Art

[0002] The main purpose of high-frequency quenching of the coupling is to improve its surface hardness and wear resistance while maintaining the toughness of the internal structure. High-frequency quenching generates eddy currents through electromagnetic induction, rapidly heating the surface of the coupling to the quenching temperature, and then forming a high-hardness martensite structure through rapid cooling, thereby enhancing its anti-wear ability and service life.

[0003] Long-term baking of the high-frequency coil by high-temperature workpieces will cause the coil to overheat, thereby affecting its performance and life. The working principle of high-frequency induction heating is to generate an alternating magnetic field in the induction coil through a high-frequency current, generate eddy currents inside the workpiece, and thus generate heat. When a high-temperature workpiece bakes the high-frequency coil for a long time, poor heat dissipation will cause the coil to overheat, damage its insulating material, increase the resistance, and even cause a short circuit; as the coil temperature continues to rise, the insulating material of the coil ages and becomes brittle, and then loses its insulating performance.

[0004] The high-frequency coil and the workpiece to be heated are often very close to achieve sufficient heating effect. However, the baking of the high-frequency coil by high-temperature workpieces will also bring problems. If the high-frequency coil can be effectively cooled, the problems caused by high-temperature baking can be avoided. For this reason, the present invention provides a surface treatment device for metal parts of a coupling. Summary of the Invention

[0005] The purpose of the present invention is to provide a surface treatment device for metal parts of a coupling to solve the problems raised in the above background art.

[0006] To achieve the above purpose, the present invention provides the following technical solution: A surface treatment device for metal parts of a coupling, comprising:

[0007] A coupling, which realizes quenching through cyclic heating and cooling;

[0008] A flat support shaft, and two symmetrically distributed flat support shafts are supported below the coupling;

[0009] A high-frequency heating unit, and a plurality of high-frequency heating units are arranged in an arc on one side above the coupling;

[0010] A nozzle, and a nozzle for spraying water to cool the coupling is arranged on the other side above the coupling;

[0011] One water warmer is correspondingly distributed on one side of each high-frequency heating unit, the adjacent two water warmers are connected end to end, and the water warmer closest to the nozzle is connected to the nozzle nearby;

[0012] Wheel control device, a wheel control device is provided at one axial end of the coupling;

[0013] Booster assembly, the booster assembly establishes a drive between the wheel control device and a flat towing shaft;

[0014] Equipment plate, the equipment plate supports and limits the wheel control device, and one end of the flat towing shaft is movably sleeved in a through hole opened on the equipment plate;

[0015] There is a long shaft group drivingly connected between the high-frequency heating unit and the water heater, and one end of the long shaft group is drivingly connected to the wheel control device.

[0016] The high-frequency heating unit includes:

[0017] High-frequency coil, the high-frequency coil heats the outer wall of the coupling on the front side;

[0018] Power connection switch connected to the end of the high-frequency coil, and a straight rack fixed on the power connection switch;

[0019] Space-positioned integrated frame, on the integrated frame, a guide plate is provided to slide through a plate hole opened on the power connection switch, and a circuit connector is provided on the integrated frame to contact and energize the power connection switch. When the high-frequency coil moves away from the coupling, the power connection switch and the circuit connector are powered off and separated.

[0020] The water heater includes:

[0021] Multiple groups of heating sheets, a water flow channel is opened inside the heating sheets, and one group of heating sheets consists of a row of heating sheets. The high-frequency coil heats a row of heating sheets on the back side. After the high-frequency coil is powered off and moves away from the coupling, one group of heating sheets is combined and relatively inserted into the gap between two adjacent parallel segments on the high-frequency coil;

[0022] Multi-control tool for controlling the combination of multiple groups of heating sheets, the multi-control tool establishes a drive with the long shaft group;

[0023] Hoses are fixedly connected to both ends of each heating sheet, and by arranging the hoses, one group of heating sheets forms a series water flow channel;

[0024] The hoses at both ends of the water flow channel are respectively connected to a hard water pipe in correspondence. The hard water pipes are space-positioned. The water outlet end of the hard water pipe in one water heater is connected to the water inlet end of the hard water pipe in the adjacent water heater, and the water outlet end of the hard water pipe in the water heater closest to the nozzle is connected to the nozzle.

[0025] The multi-control tool includes a U-shaped plate fixed at one end of the integrated frame, a positive L-shaped plate and an inverted L-shaped plate supported on the U-shaped plate, a two-way shaft gear that establishes a drive between the positive L-shaped plate and the inverted L-shaped plate, a push-pull assembly that establishes a drive between the two-way shaft gear and the long shaft group, a middle-position frame fixed on the U-shaped plate, a left-position frame fixed on the positive L-shaped plate, and a right-position frame fixed on the inverted L-shaped plate.

[0026] The two end plates on the U-shaped plate slide through the two square holes opened in the positive L-plate respectively, and the two end plates on the U-shaped plate also slide through the two square holes opened in the inverted L-plate. One end of the two-way shaft gear is movably sleeved in the through hole opened on the bracket set on the U-shaped plate. The positive L-plate and the inverted L-plate are respectively provided with a row of teeth to engage with the two-way shaft gear for transmission. The middle frame is fixedly connected to the middle heating plate in a group of heating plates, the left frame is fixedly connected to one side edge heating plate in a group of heating plates, and the right frame is fixedly connected to the other side edge heating plate in a group of heating plates.

[0027] The push-pull assembly includes a limit pile fixed on the U-shaped plate, a Z-shaped plate and an L-shaped adjustment plate that slide through two plate holes opened on the limit pile, and an S-shaped spring piece fixedly connected between the Z-shaped plate and the L-shaped adjustment plate. The L-shaped adjustment plate is provided with a row of teeth to engage with the bidirectional shaft gear for transmission.

[0028] The long shaft group includes a long shaft, a range-extending gear fixed on the long shaft, and a torsion spring sleeved on the long shaft. The range-extending gear and the spur rack are meshed and transmitted. One end of the torsion spring is fixed on the long shaft, and the other end is fixed on the integrated frame. A local section of the long shaft is movably sleeved in a through hole opened on the integrated frame. The end of the long shaft is meshed and transmitted with a row of teeth set on the Z-shaped plate by setting an axis gear.

[0029] The wheel control device includes a pressure shaft with one end movably sleeved in a column hole opened on the equipment plate, a spring with the other end of the pressure shaft fixedly sleeved, a round box shell with an outer fixed sleeve of the spring, a fixture for positioning the round box shell, a plurality of unit folding plates arranged in an arc shape on one side of the round box shell, and an arc plate frame supporting the unit folding plates, one end of the arc plate frame being fixed on the equipment plate.

[0030] The round box shell includes a cylinder, a plurality of protrusions evenly arranged on the outside of the cylinder, and a ring plate arranged at one end of the cylinder. The pressing shaft is movably sleeved on the middle part of the ring plate of the round box shell. The unit folding plate slides through the plate hole opened on the arc plate frame. The protrusion of the round box shell pushes one end of the unit folding plate encountered. The other end of the unit folding plate is meshed with the long shaft gear arranged at the end of the long shaft group through a row of teeth.

[0031] The fixture includes a tail frame fixed on the arc plate frame, an intermediate control plate sliding through a plate hole opened in the tail frame, and an L-shaped spring piece fixed to the tail frame at one end. A plurality of V-shaped grooves are evenly arranged on the inner wall of the cylindrical body of the circular box shell. One end of the intermediate control plate is clamped into the V-shaped groove of the circular box shell by providing a pointed end, and the other end of the intermediate control plate contacts the other end of the L-shaped spring piece.

[0032] The boost assembly includes a disc gear fixed to the end of the pressure shaft, a worm engaged with one side of the disc gear, and a neck shaft that is vertically driven by the worm. A recessed frame is provided on the equipment plate to support the worm and the neck shaft. One end of the neck shaft is connected to the outer gear ring provided on the flat drag shaft by providing a gear, and the other end of the neck shaft is connected to the bevel gear fixed on the worm by providing a bevel gear for changing direction transmission.

[0033] Compared with the prior art, the present invention has the following beneficial effects:

[0034] 1. The present invention heats the coupling by means of a plurality of high-frequency coils arranged in an arc shape, and the plurality of high-frequency coils are rotated away from the coupling to dissipate heat, thereby preventing the high-frequency coils from being excessively baked by the local outer wall of the high-temperature coupling. In addition, the back of the high-frequency coil has no magnetic resistance design, but is equipped with a heating plate with internal flowing water. The back of the high-frequency coil heats the flowing water, generating warm water that is injected into the nozzle, which sprays the warm water onto the high-temperature part of the coupling to achieve quenching and cooling.

[0035] 2. When the high-frequency coil is away from the coupling, multiple groups of heating plates are retracted, and then each group of heating plates are relatively inserted into the parallel gap on the high-frequency coil after being put together, so that the high-frequency coil can be smoothly moved away from the coupling. BRIEF DESCRIPTION OF THE DRAWINGS

[0036] Figure 1 It is a structural schematic diagram of the present invention.

[0037] Figure 2 This is a schematic diagram of the water heater location.

[0038] Figure 3 Schematic diagram of the coupling position.

[0039] Figure 4 Schematic diagram of the high-frequency heating unit structure.

[0040] Figure 5 Schematic diagram of the high-frequency coil structure.

[0041] Figure 6 This is a schematic diagram of the push-pull component structure.

[0042] Figure 7 Schematic diagram of the heating plate position.

[0043] Figure 8 Schematic diagram of the U-shaped plate structure.

[0044] Figure 9 Schematic diagram of the long axis group structure.

[0045] Figure 10 This is a schematic diagram of the wheel control device structure.

[0046] Figure 11 A schematic diagram of the fixture structure.

[0047] Figure 12 It is a schematic diagram of the structure of a round box shell.

[0048] Figure 13 It is a schematic diagram of the structure of a pressurization component.

[0049] In the figure: coupling 1, flat towing shaft 2, high-frequency heating unit 3, nozzle 4, warm water heater 5, long shaft group 6, wheel control device 7, pressurization component 8, equipment plate 9, high-frequency coil 10, power connection switch 11, integrated rack 12, straight rack 13, heating sheet 14, multi-control tool 15, hose 16, hard water pipe 17, U-shaped plate 18, positive L-shaped plate 19, inverted L-shaped plate 20, two-way shaft gear 21, push-pull component 22, middle position frame 23, left position frame 24, right position frame 25, Z-shaped plate 26, S-shaped spring piece 27, L-shaped adjusting plate 28, limit pile 29, long shaft 30, extended-range gear 31, torsion spring 32, unit folding plate 33, arc plate frame 34, fixture 35, hairspring 36, feed pressing shaft 37, round box shell 38, intermediate control plate 39, tail frame 40, L-shaped spring piece 41, disk gear 42, worm 43, neck position shaft 44. Specific implementation manners

[0050] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the technical solutions in the present invention, all other embodiments obtained by those of ordinary skill in the art without making creative efforts shall fall within the protection scope of the present invention.

[0051] Please refer to Figures 1 to 13 , the present invention provides a technical solution: a surface treatment device for the metal parts of a coupling, including:

[0052] Coupling 1, the coupling 1 realizes quenching through cyclic heating and cooling;

[0053] Flat towing shaft 2, two symmetrically distributed flat towing shafts 2 are supported below the coupling 1;

[0054] High-frequency heating unit 3, a plurality of high-frequency heating units 3 are arranged in an arc on one side above the coupling 1;

[0055] Nozzle 4, a nozzle 4 for spraying water to cool the coupling 1 is arranged on the other side above the coupling 1;

[0056] One warm water heater 5 is correspondingly distributed on one side of each high-frequency heating unit 3, the adjacent two warm water heaters 5 are connected end to end, and the warm water heater 5 closest to the nozzle 4 is connected to the nozzle 4 nearby;

[0057] Wheel control device 7, a wheel control device 7 is arranged at one axial end of the coupling 1;

[0058] A pressurization assembly 8 is provided, which establishes a transmission between the wheel control device 7 and a flat towing shaft 2;

[0059] An equipment plate 9 is provided, which supports the limit wheel control device 7. One end of the flat towing shaft 2 is movably sleeved in a through hole opened on the equipment plate 9;

[0060] A long shaft group 6 is in transmission connection between the high-frequency heating unit 3 and the water heater 5. One end of the long shaft group 6 is in transmission connection with the wheel control device 7.

[0061] Reference Figure 4 Understand that the high-frequency heating unit 3 includes:

[0062] A high-frequency coil 10, which heats the outer wall of the coupling 1 on the front side;

[0063] A power connection switch 11 connected to the end of the high-frequency coil 10, and a straight rack 13 fixed on the power connection switch 11;

[0064] A spatially positioned integrated frame 12. On the integrated frame 12, a guide plate is provided to slide through a plate hole opened on the power connection switch 11. On the integrated frame 12, a circuit connector is provided to make contact and conduct electricity with the power connection switch 11. When the high-frequency coil 10 moves away from the coupling 1, the power connection switch 11 and the circuit connector are powered off and separated. The power connection switch 11 is a component of the prior art. The circuit provided on the integrated frame 12 is externally connected to a power supply device in the prior art, and the power supply device controls the frequent change of the direction of the circuit current.

[0065] Reference Figure 4 Understand that the water heater 5 includes:

[0066] Multiple groups of heating fins 14, with a water flow channel opened inside the heating fins 14. And one group of heating fins 14 is composed of a row of heating fins 14. The high-frequency coil 10 heats the back side of a row of heating fins 14. After the high-frequency coil 10 is powered off and moves away from the coupling 1, one group of heating fins 14 is combined and relatively inserted into the gap between two adjacent parallel segments on the high-frequency coil 10;

[0067] A multi-control tool 15 for controlling the combination of multiple groups of heating fins 14, which is in transmission connection with the long shaft group 6;

[0068] Hoses 16 are fixedly connected to both ends of each heating fin 14, and by arranging the hoses 16, one group of heating fins 14 forms a series water flow channel;

[0069] The hoses 16 at both ends of the water flow channel are respectively and correspondingly connected to a hard water pipe 17. The hard water pipes 17 are spatially positioned. The water outlet end of the hard water pipe 17 in one water heater 5 is connected to the water inlet end of the hard water pipe 17 in the adjacent water heater 5, and the water outlet end of the hard water pipe 17 in the water heater 5 closest to the nozzle 4 is connected to the nozzle 4.

[0070] refer to Figure 6 It is understood that the multi-control device 15 includes a U-shaped plate 18 fixed to one end of the integrated frame 12, a positive L-plate 19 and an inverted L-plate 20 supported on the U-shaped plate 18, a two-way shaft gear 21 for establishing transmission between the positive L-plate 19 and the inverted L-plate 20, a push-pull assembly 22 for establishing transmission between the two-way shaft gear 21 and the long shaft group 6, a middle frame 23 fixed to the U-shaped plate 18, a left frame 24 fixed to the positive L-plate 19, and a right frame 25 fixed to the inverted L-plate 20.

[0071] The two end plates on the U-shaped plate 18 slide through the two square holes opened on the positive L-plate 19 respectively, and the two end plates on the U-shaped plate 18 also slide through the two square holes opened on the inverted L-plate 20. One end of the two-way shaft gear 21 is movably sleeved in the through hole opened on the bracket set on the U-shaped plate 18. A row of teeth is respectively provided on the positive L-plate 19 and the inverted L-plate 20 to engage with the two-way shaft gear 21 for transmission. The middle frame 23 is fixedly connected to the middle heating plate 14 in a group of heating plates 14, the left frame 24 is fixedly connected to one side edge heating plate 14 in a group of heating plates 14, and the right frame 25 is fixedly connected to the other side edge heating plate 14 in a group of heating plates 14.

[0072] refer to Figure 6 It is understood that the push-pull assembly 22 includes a limit pile 29 fixed on the U-shaped plate 18, a Z-shaped plate 26 and an L-shaped adjustment plate 28 that slide through two plate holes opened on the limit pile 29, and an S-shaped spring piece 27 fixedly connected between the Z-shaped plate 26 and the L-shaped adjustment plate 28. The L-shaped adjustment plate 28 is provided with a row of teeth to engage with the bidirectional shaft gear 21 for transmission.

[0073] The long shaft group 6 includes a long shaft 30, an extender gear 31 fixed on the long shaft 30, and a torsion spring 32 sleeved on the long shaft 30. The extender gear 31 and the spur rack 13 are engaged and transmitted. One end of the torsion spring 32 is fixed on the long shaft 30, and the other end is fixed on the integrated frame 12. A partial section of the long shaft 30 is movably sleeved in a through hole opened on the integrated frame 12. The end of the long shaft 30 is engaged and transmitted with a row of teeth set on the Z-shaped plate 26 by setting an axis gear.

[0074] The wheel control device 7 includes a pressure shaft 37 with one end movably sleeved in a column hole opened on the equipment plate 9, a spring 36 fixedly sleeved on the other end of the pressure shaft 37, a round box shell 38 fixedly sleeved on the outside of the spring 36, a clamp 35 for clamping the round box shell 38, a plurality of unit folding plates 33 arranged in an arc shape on one side of the round box shell 38, and an arc plate frame 34 supporting the unit folding plates 33, one end of which is fixed on the equipment plate 9.

[0075] The round box shell 38 includes a cylinder body, a plurality of bumps evenly arranged in a ring on the outer side of the cylinder body, and a ring plate arranged at one end of the cylinder body. The pressure shaft 37 is movably sleeved in the middle of the ring plate of the round box shell 38. The unit folding plate 33 slides through the plate hole opened on the arc plate frame 34. One end of the unit folding plate 33 pushed by the bump of the round box shell 38, and the other end of the unit folding plate 33 is meshed and driven with the long shaft gear arranged at the end of the long shaft group 6 by arranging a row of teeth.

[0076] The fixture 35 includes a tail frame 40 fixed on the arc plate frame 34, an intermediate control plate 39 sliding through the plate hole opened on the tail frame 40, and an L-shaped elastic piece 41 fixed at one end on the tail frame 40. A plurality of V-shaped grooves are evenly arranged in a ring on the inner side wall of the cylinder body of the round box shell 38. One end of the intermediate control plate 39 is clamped into the V-shaped groove of the round box shell 38 by arranging a tip, and the other end of the intermediate control plate 39 contacts the other end of the L-shaped elastic piece 41.

[0077] The pressurization assembly 8 includes a disk gear 42 fixed at the end of the pressure shaft 37, a worm 43 meshed and driven on one side of the disk gear 42, and a neck shaft 44 vertically driven with the worm 43. The equipment plate 9 supports the worm 43 and the neck shaft 44 by arranging a concave frame. One end of the neck shaft 44 is meshed and driven with the external gear ring arranged on the flat towing shaft 2 by arranging a gear, and the other end of the neck shaft 44 is variably driven with the bevel gear fixed on the worm 43 by arranging a bevel gear. The worm 43 and the neck shaft 44 are respectively movably sleeved in two through holes opened on the concave frame.

[0078] A flat towing shaft 2 is externally connected to a driving mechanism in the prior art. The flat towing shaft 2 rotates to drive the coupling 1 to slowly rotate. The outer side wall of the coupling 1 successively passes through the heating areas of a plurality of high-frequency coils 10 arranged in an arc. In order to avoid the high-temperature coupling 1 continuously baking the high-frequency coils 10, each high-frequency coil 10 takes turns to move away from the high-temperature coupling 1, and the high-frequency coil 10 is automatically powered off after moving away.

[0079] The drive principle of the high-frequency coil 10 taking turns to move away from the coupling 1: The flat-dragging shaft 2 drives the neck shaft 44, and then drives the disk gear 42 through the worm 43. The disk gear 42 drives the feeding press shaft 37 to rotate slowly. The rotation of the feeding press shaft 37 causes the spring 36 to store energy. When the stored energy is sufficient, it will break the clamping pressure between the intermediate control plate 39 and the round box shell 38. Then the round box shell 38 rotates quickly. Subsequently, the next V-shaped groove on the intermediate control plate 39 and the round box shell 38 is clamped. In this way, the round box shell 38 rotates intermittently. Each time the round box shell 38 stops, it will last for a period of time. At the same time, a convex block on the round box shell 38 will push the unit folding plate 33, and then the unit folding plate 33 moves to drive the long shaft 30 to rotate. Subsequently, it rotates through the range-increasing gear 31 to drive the straight rack 13 to move. Then the power-on switch 11 drives the high-frequency coil 10 to move away from the coupling 1. After the high-frequency coil 10 moves away from the coupling 1, the power connection between the power-on switch 11 and the circuit on the integrated frame 12 is disconnected. Since the convex blocks on the round box shell 38 at the source push the unit folding plate 33 in turn, multiple high-frequency coils 10 arranged in an arc take turns to move away from the coupling 1.

[0080] When a single high-frequency coil 10 moves away from the coupling 1, the remaining stationary high-frequency coils 10 continue to heat the outer wall of the coupling 1. The locally heated outer wall of the coupling 1 after heating rotates to the nozzle 4, and the nozzle 4 sprays warm water to cool the coupling 1. Refer to Figure 7 , the hard water pipe 17 at the right end is externally connected to the water supply mechanism. The water flow will be heated by a row of water heaters 5 before flowing into the nozzle 4. After heating, it is injected into the nozzle 4. Specifically, the water flow diffuses from one hard water pipe 17 into multiple heating fins 14, and then converges in another hard water pipe 17 and continues to be transported to the hard water pipe 17 of the next water heater 5. The front of the energized high-frequency coil 10 heats the coupling 1, while the back heats the water flow flowing through the heating fins 14.

[0081] During the process of the high-frequency coil 10 moving away from the coupling 1, the high-frequency coil 10 gradually approaches the heating fins 14. Multiple heating fins 14 in a group of heating fins 14 move closer together. Then the approaching heating fins 14 are inserted between the two parallel segments on the high-frequency coil 10, and the high-frequency coil 10 successfully moves away from the coupling 1. The principle of multiple heating fins 14 in a group of heating fins 14 moving closer together: The long shaft group 6 rotates to drive the Z-shaped plate 26. The Z-shaped plate 26 drives the L-shaped adjusting plate 28 to move synchronously through the S-shaped elastic piece 27. Then the rotation of the bidirectional shaft gear 21 causes the inverted L-shaped plate 20 and the positive L-shaped plate 19 to approach. The left-position frame 24 and the right-position frame 25 both move synchronously, but in opposite directions. Refer to Figure 6 , there are three groups of heating fins 14. Each group of heating fins 14 contains three heating fins 14. The middle heating fin 14 in each group of heating fins 14 does not move, and the heating fins 14 on both sides approach the middle heating fin 14.

[0082] Although embodiments of the present invention have been shown and described, it will be understood by those of ordinary skill in the art that various changes, modifications, substitutions and variations can be made to these embodiments without departing from the principles and spirit of the present invention, and the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A surface treatment device for metal parts of a coupling, characterized in that Includes: Coupling, the coupling is quenched by cyclic heating and cooling; Flat support shaft, two symmetrically distributed flat drag shafts are supported under the coupling; High-frequency heating unit: multiple high-frequency heating units are arranged in an arc shape on one side above the coupling; A nozzle is provided on the other side above the coupling to spray water to cool the coupling; A water heater is distributed on one side of each high-frequency heating unit. Two adjacent water heaters are connected end to end, and the water heater closest to the nozzle is connected to the nozzle closest to it. A wheel control device is provided at one axial end of the coupling; A supercharger assembly, which establishes a transmission between the wheel control device and a flat drag axle; An equipment plate, the equipment plate supports the limited wheel control device, and one end of the flat drag shaft is movably sleeved in a through hole provided in the equipment plate; A long shaft group is transmission-connected between the high-frequency heating unit and the water heater, and one end of the long shaft group is transmission-connected to the wheel control device.

2. The surface treatment device for the metal part of a coupling according to claim 1, characterized in that: The high-frequency heating unit includes: High-frequency coil, the front of the high-frequency coil heats the outer wall of the coupling; A power switch connected to the end of the high-frequency coil, and a spur rack fixed to the power switch; The integrated frame is spatially positioned, and a guide plate is set on the integrated frame to slide through the plate hole opened on the power switch. The integrated frame is provided with a circuit connector to contact the power switch to energize. The high-frequency coil moves away from the coupling, and the power switch and the circuit connector are de-energized and separated.

3. The surface treatment equipment for the metal parts of a coupling according to claim 2, characterized in that: The water heater includes: Multiple groups of heating plates, each with a water flow channel inside, and a group of heating plates consisting of a row of heating plates. The back of the high-frequency coil heats the row of heating plates. After the high-frequency coil is powered off, it is away from the coupling. The group of heating plates are combined and inserted into the gap between two adjacent parallel sections of the high-frequency coil. A multi-controller used to control the merging of multiple groups of heating plates, and a transmission is established between the multi-controller and the long axis group; Each heating plate is fixedly connected to a hose at both ends, and the hoses are laid out to form a series water flow channel for a group of heating plates; The hoses at both ends of the water flow channel are connected to a corresponding hard water pipe. The hard water pipes are spatially positioned. The water outlet end of the hard water pipe in one water heater is connected to the water inlet end of the hard water pipe in the adjacent water heater, and the water outlet end of the hard water pipe in the water heater closest to the nozzle is connected to the nozzle.

4. A surface treatment device for a metal part of a coupling according to claim 3, characterized in that: The multi-control device includes a U-shaped plate fixed on one end of the integrated frame, a positive L-plate and an inverted L-plate supported on the U-shaped plate, a bidirectional shaft gear that establishes transmission between the positive L-plate and the inverted L-plate, a push-pull assembly that establishes transmission between the bidirectional shaft gear and the long shaft group, a middle frame fixed on the U-shaped plate, a left frame fixed on the positive L-plate, and a right frame fixed on the inverted L-plate.

5. The surface treatment device for the metal part of a coupling according to claim 4, characterized in that: The two end plates on the U-shaped plate slide through the two square holes opened in the positive L-plate respectively, and the two end plates on the U-shaped plate also slide through the two square holes opened in the inverted L-plate. One end of the two-way shaft gear is movably sleeved in the through hole opened on the bracket set on the U-shaped plate. The positive L-plate and the inverted L-plate are respectively provided with a row of teeth to engage with the two-way shaft gear for transmission. The middle frame is fixedly connected to the middle heating plate in a group of heating plates, the left frame is fixedly connected to one side edge heating plate in a group of heating plates, and the right frame is fixedly connected to the other side edge heating plate in a group of heating plates.

6. The surface treatment device for the metal part of a coupling according to claim 4, characterized in that: The push-pull assembly includes a limit pile fixed on the U-shaped plate, a Z-shaped plate and an L-shaped adjustment plate that slide through two plate holes opened on the limit pile, and an S-shaped spring piece fixedly connected between the Z-shaped plate and the L-shaped adjustment plate. The L-shaped adjustment plate is provided with a row of teeth to engage with the bidirectional shaft gear for transmission.

7. The surface treatment device for the metal part of a coupling according to claim 6, characterized in that: The long shaft group includes a long shaft, a range-extending gear fixed on the long shaft, and a torsion spring sleeved on the long shaft. The range-extending gear and the spur rack are meshed and transmitted. One end of the torsion spring is fixed on the long shaft, and the other end is fixed on the integrated frame. A local section of the long shaft is movably sleeved in a through hole opened on the integrated frame. The end of the long shaft is meshed and transmitted with a row of teeth set on the Z-shaped plate by setting an axis gear.

8. The surface treatment equipment for the metal parts of a coupling according to claim 7, characterized in that: The wheel control device includes a pressure shaft with one end movably sleeved in a column hole opened on the equipment plate, a spring with the other end of the pressure shaft fixedly sleeved, a round box shell with an outer fixed sleeve of the spring, a fixture for positioning the round box shell, a plurality of unit folding plates arranged in an arc shape on one side of the round box shell, and an arc plate frame supporting the unit folding plates, one end of the arc plate frame being fixed on the equipment plate.

9. The surface treatment device for the metal part of a coupling according to claim 8, characterized in that: The round box shell includes a cylinder, a plurality of protrusions evenly arranged on the outside of the cylinder, and a ring plate arranged at one end of the cylinder. The pressing shaft is movably sleeved on the middle part of the ring plate of the round box shell. The unit folding plate slides through the plate hole opened on the arc plate frame. The protrusion of the round box shell pushes one end of the unit folding plate encountered. The other end of the unit folding plate is meshed with the long shaft gear arranged at the end of the long shaft group through a row of teeth.

10. The surface treatment equipment for the metal parts of a coupling according to claim 9, characterized in that: The fixture includes a tail frame fixed on the arc plate frame, an intermediate control plate sliding through a plate hole opened in the tail frame, and an L-shaped spring piece fixed to the tail frame at one end. A plurality of V-shaped grooves are evenly arranged on the inner wall of the cylindrical body of the circular box shell. One end of the intermediate control plate is clamped into the V-shaped groove of the circular box shell by providing a pointed end, and the other end of the intermediate control plate contacts the other end of the L-shaped spring piece.

11. A surface treatment device for a metal part of a coupling according to claim 8, characterized in that: The boost assembly includes a disc gear fixed to the end of the pressure shaft, a worm engaged with one side of the disc gear, and a neck shaft that is vertically driven by the worm. A recessed frame is provided on the equipment plate to support the worm and the neck shaft. One end of the neck shaft is connected to the outer gear ring provided on the flat drag shaft by providing a gear, and the other end of the neck shaft is connected to the bevel gear fixed on the worm by providing a bevel gear for changing direction transmission.

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