Anti-sticking device for galvanized part production

Abstract

The application discloses a kind of anti-adhesion devices for galvanized part production, it is related to galvanizing technical field, including the galvanizing component that is filled with zinc liquid, multiple groups of discharging assembly are placed in galvanizing component, discharging assembly is arranged in double layers, the material needing galvanizing is layered placed in discharging assembly, in the process of galvanizing, discharging assembly can simultaneously shake the material in upper and lower layers, avoid material adhesion, the application is also provided with processing component, processing component places discharging assembly in galvanizing component, and processing component cooperates with discharging assembly, and the material on the upper and lower sides in discharging assembly is stirred, and processing component can separately take out the material on the upper layer of discharging assembly, the application reduces the accumulation of material by the upper and lower layers of discharging assembly, improves single galvanizing amount, and discharging assembly cooperates with processing component to realize the shaking and stirring of discharging assembly to material, avoid material adhesion problem.

Description

Technical Field

[0001] This invention relates to the field of galvanizing technology, and in particular to an anti-sticking device for the production of galvanized parts. Background Technology

[0002] In the galvanizing industry, immersing pre-treated steel workpieces in molten zinc to form a dense zinc-iron alloy coating is a common process to improve the corrosion resistance of workpieces. In actual production, workpieces to be coated are often numerous and varied in shape. If they are piled up haphazardly during the immersion process, they can easily stick together or become nested, preventing the contact surfaces from fully contacting the molten zinc and resulting in defects such as incomplete coating or uneven coating. Furthermore, if workpieces remain in fixed contact in the molten zinc for an extended period, the contact areas may stick together due to localized overheating or insufficient fluidity of the zinc. After tapping, these workpieces require forced separation, which can easily damage the coating surface or even deform and render the workpiece unusable.

[0003] In galvanizing production lines, the devices used to support workpieces are mostly simple baskets, hangers, or clamps. While basket-type supports can hold a large number of workpieces, the workpieces are stacked haphazardly within the basket, causing significant mutual obstruction and making it difficult for molten zinc to penetrate the stack, resulting in a high risk of adhesion. Hanger-type supports can suspend workpieces one by one, reducing mutual contact, but the loading and unloading operations are cumbersome, and they have certain requirements on the shape of the workpieces, limiting their versatility and making it difficult to adapt to mixed production of multiple varieties. Some equipment attempts to reduce adhesion by using mechanical vibration or agitation to create relative movement of workpieces in the molten zinc, but the vibration intensity is difficult to control precisely: too low an intensity results in poor anti-adhesion effect, while too high an intensity may cause violent collisions between workpieces or between workpieces and the basket, causing scratches on the coating or deformation of the workpieces.

[0004] In terms of anti-adhesion adjustment methods, existing technologies mostly employ a single vibration or prying method, failing to select an appropriate action method based on the weight and shape characteristics of the workpiece. For thin and light workpieces, strong vibration can easily cause them to collide with each other, leading to deformation; for heavier workpieces, weak vibration is insufficient to overcome their inertia and achieve position adjustment, thus failing to effectively prevent workpiece adhesion. Summary of the Invention

[0005] To address the aforementioned technical problems, this invention discloses an anti-sticking device for the production of galvanized parts.

[0006] The technical solution adopted by the present invention to solve the above-mentioned technical problems is as follows: an anti-sticking device for the production of galvanized parts, including a galvanizing assembly, the galvanizing assembly including a galvanizing tank, the galvanizing tank containing zinc liquid, a feeding assembly placed in the galvanizing tank, and a cleaning mechanism provided on the galvanizing tank, the cleaning mechanism cleaning the zinc dross; The feeding assembly includes a hopper 1, a hopper 2 and a placement plate are disposed inside the hopper 1, and a cylindrical cam is disposed inside the hopper 1. The hopper 2 and the placement plate are slidably connected to the cylindrical cam. When the hopper 2 and the placement plate move on the cylindrical cam, they cause the material to shake. An mounting frame 1 is slidably disposed on the hopper 1. A toggle plate 1 is detachably disposed on the mounting frame 1. The toggle plate 1 toggle the material on the placement plate. Limiting posts 2 are disposed on both sides of the hopper 1. Multiple sets of limiting posts 4 are disposed at the upper end of the hopper 2. Multiple sets of limiting posts 5 are disposed at the lower end of the hopper 2. The limiting posts 5 are inserted into the placement plate. A processing component is slidably mounted on the galvanizing assembly. The processing component includes an adjusting frame one, an adjusting frame two slidably mounted on the adjusting frame one, a buffer mechanism inside the adjusting frame two, the buffer mechanism driving the hopper two and the placement plate to rotate, an installation frame two slidably mounted inside the adjusting frame two, a turning plate two rotatably mounted on the installation frame two, and multiple sets of turning plates two mounted on the turning plate two, the turning plates two turning the material in the hopper two.

[0007] Furthermore, the cleaning mechanism includes an adjusting plate slidably mounted on the galvanizing tank, a scraper slidably disposed on the adjusting plate, and a spring disposed between the scraper and the adjusting plate. Furthermore, a recycling tank is provided on the side of the galvanizing tank, and an inclined block is provided on the side of the galvanizing tank where the recycling tank is provided. When the scraper approaches the inclined block, it pushes the zinc dross into the recycling tank.

[0008] Furthermore, transfer blocks are provided on both sides of the hopper, and a transfer frame is slidably provided on the adjusting frame. The transfer frame and the transfer blocks are inserted to fix the hopper.

[0009] Furthermore, the second adjusting frame is rotatably provided with a first actuating disk, and a plurality of actuating posts are provided at the lower end of the actuating disk. The first mounting frame is provided with a third limiting post, which is inserted into the actuating post.

[0010] Furthermore, the buffer mechanism includes a mounting frame three rotatably installed inside the adjusting frame two, a buffer frame slidably disposed at the lower end of the mounting frame three, a limiting disk rotatably disposed at the lower end of the buffer frame, a limiting block disposed on the limiting disk, and the limiting block engaging with the limiting post four.

[0011] Furthermore, a spring is provided between the mounting bracket three and the buffer bracket.

[0012] Furthermore, an installation plate is rotatably mounted on the installation frame three, and a locking block is slidably mounted on the installation plate. The locking block is engaged with the limiting post four, and the locking block is fixed to the hopper two through the limiting post four.

[0013] Furthermore, the lower end of the second adjusting frame is provided with an opening, and the lower end opening of the second adjusting frame engages with the second limiting post to limit the hopper.

[0014] The beneficial effects of this invention compared with the prior art are as follows: This invention achieves layered placement of materials through the feeding component, increasing the material throughput while preventing materials from piling up and sticking together. During the galvanizing process, the feeding component and the processing component can separately remove materials with different soaking times, improving the applicability of this invention. The processing component and the feeding component work together to adjust the position of the materials. Lighter materials are adjusted by shaking, and heavier materials are adjusted by tossing, further preventing materials from sticking together and improving the galvanizing efficiency of this invention. Attached Figure Description

[0015] Figure 1 This is a schematic diagram of the overall structure of the present invention.

[0016] Figure 2 This is a front view of the overall structure of the present invention.

[0017] Figure 3 This is a schematic diagram of the zinc plating component structure of the present invention.

[0018] Figure 4 This is a partial structural diagram of the galvanized component of the present invention.

[0019] Figure 5 This is a front view of the scraper structure of the present invention.

[0020] Figure 6 This is a schematic diagram of the feeding assembly structure of the present invention.

[0021] Figure 7 This is a partial structural diagram of the feeding assembly of the present invention.

[0022] Figure 8 This is a cross-sectional view of the feeding assembly structure of the present invention.

[0023] Figure 9 This is a schematic diagram showing the installation position of the hopper 2 and the placement plate of the present invention.

[0024] Figure 10 This is a front view of the processing component structure of the present invention.

[0025] Figure 11 for Figure 10 Cross-sectional view of the structure along the AA direction.

[0026] Figure 12 This is a partial structural diagram of the processing component of the present invention.

[0027] Figure 13 This is a schematic diagram showing the installation positions of the mounting bracket 2 and the toggle plate 2 of the present invention.

[0028] Figure 14 This is a schematic diagram showing the installation positions of the processing component and the feeding component of the present invention.

[0029] Figure 15 This is a schematic diagram showing the installation positions of the processing component and the second hopper in this invention.

[0030] Reference numerals: 1-Galvanizing assembly; 2-Discharging assembly; 3-Processing assembly; 101-Galvanizing tank; 102-Adjusting plate; 103-Motor 1; 104-Recovery tank; 105-Scraper; 106-Spring 1; 107-Motor 2; 108-Placement platform; 109-Limiting post 1; 110-Inclined block; 201-Hopper 1; 202-Hopper 2; 203-Transfer block; 204-Limiting post 2; 205-Mounting frame 1; 206-Limiting post 3; 207-Cylindrical cam; 208-Motion groove 1; 209-Motion groove 2; 210-Actuating plate 1; 211-Bolt; 212-Placement plate; 213-Limiting post 4; 214-Connecting post 1; 215-Connecting post 2 ; 216-Limit pin five; 301-Adjusting frame one; 302-Adjusting frame two; 303-Motor three; 304-Electric cylinder one; 305-Transfer frame; 306-Actuating plate one; 307-Actuating pin; 308-Motor four; 309-Gear one; 310-Electric cylinder two; 311-Electric cylinder three; 312-Mounting frame two; 313-Mounting frame three; 314-Buffer frame; 315-Spring two; 316-Motor five; 317-Limiting plate; 318-Limiting block; 319-Motor six; 320-Mounting plate; 321-Motor seven; 322-Locking block; 323-Gear two; 324-Actuating plate two; 325-Gear three; 326-Actuating plate two; 327-Gear four. Detailed Implementation

[0031] refer to Figures 1 to 15 As shown, this invention discloses an anti-sticking device for galvanized parts production, including a galvanizing assembly 1 for holding molten zinc. The galvanizing assembly 1 is equipped with a scraper 105, which cleans zinc dross from the molten zinc to prevent it from affecting the galvanizing of the materials. Multiple sets of feeding assemblies 2 are placed inside the galvanizing assembly 1. The materials to be galvanized are placed inside the feeding assemblies 2. The feeding assemblies 2 are designed with upper and lower layers, allowing for more material to be placed while preventing excessive material accumulation that could affect the galvanizing effect. A processing assembly 3 is provided in this invention to cooperate with the feeding assemblies 2. The processing assembly 3 places the feeding assemblies 2 inside the galvanizing assembly 1 and controls the material inside the feeding assemblies 2 to shake and move. This invention improves the galvanizing effect of the materials by shaking and moving them to prevent sticking.

[0032] refer to Figures 1 to 5As shown, the galvanizing assembly 1 includes a galvanizing tank 101 containing molten zinc. A second motor 107 and a first motor 103 are mounted on the side of the galvanizing tank 101. Both the output shafts of the second motor 107 and the first motor 103 are equipped with lead screws. A placement platform 108 is mounted on the side of the galvanizing tank 101, and the feeding assembly 2 is placed on the placement platform 108. An adjusting plate 102 is slidably mounted on the galvanizing tank 101. The adjusting plate 102 is threadedly connected to the lead screw on the output shaft of the first motor 103. When the first motor 103 starts, it drives the adjusting plate 102 to slide on the galvanizing tank 101. Multiple sets of limiting posts 109 are installed inside the galvanizing tank 101, and the feeding assembly 2 is placed on the limiting posts 109.

[0033] A scraper 105 is slidably mounted on the adjusting plate 102. The scraper 105 has filter holes. A spring 106 is installed between the scraper 105 and the adjusting plate 102. When the adjusting plate 102 moves, it drives the scraper 105 to move. The scraper 105 scrapes the zinc dross on the surface of the zinc liquid. A recovery tank 104 is installed on the side of the galvanizing tank 101 away from the placement platform 108. An inclined block 110 is also installed on the side of the galvanizing tank 101 where the recovery tank 104 is located. When the adjusting plate 102 drives the scraper 105 to move onto the inclined block 110, the inclined block 110 squeezes the scraper 105. The scraper 105 pushes the zinc dross through the inclined block 110 into the recovery tank 104 for collection, thereby realizing the automatic cleaning of zinc liquid and zinc dross.

[0034] refer to Figures 6 to 9 As shown, the feeding assembly 2 includes a hopper 201 with multiple sets of drainage holes, multiple sets of limiting posts 204 and transfer blocks 203. The limiting posts 204 fix the hopper 201 in place. The processing assembly 3 moves the hopper 201 via the transfer blocks 203. Two sets of mounting brackets 205 are slidably mounted on the lower end of the hopper 201. A toggle plate 2 is detachably mounted on each mounting bracket 205. 10. The agitator plate 210 moves the material in the hopper 201. There is a gap between the lower end of the agitator plate 210 and the upper end of the placement plate 212 to prevent the placement plate 212 from colliding with the agitator plate 210 when it shakes up and down. The hopper 201 and the mounting frame 205 are fixed by bolts 211. The mounting frame 205 is also provided with a limit post 206. The processing component 3 drives the mounting frame 205 to move through the limit post 206.

[0035] A cylindrical cam 207 is installed inside hopper one 201. The cylindrical cam 207 has a first motion groove 208 and a second motion groove 209. A placement plate 212 and a second hopper 202 are detachably installed inside hopper one 201. A second connecting column 215 is installed inside the placement plate 212. When the placement plate 212 is installed on the cylindrical cam 207, the second connecting column 215 slides within the first motion groove 208. A first connecting column 214 is installed inside hopper two 202. Hopper two 202 is mounted on the cylindrical cam 207. When 07 is in motion, connecting column 1 214 slides within motion groove 209. The upper sections of motion groove 1 208 and motion groove 209 are vertically set, while the lower sections of motion groove 1 208 and motion groove 209 are curved. When connecting column 1 214 and connecting column 215 move in the upper sections of motion groove 1 208 and motion groove 209, they do not rotate. When connecting column 1 214 and connecting column 215 move in the lower sections of motion groove 1 208 and motion groove 209, they rotate while moving up and down.

[0036] The upper end of hopper 202 is provided with multiple sets of limit posts 4 213, and the lower end of hopper 202 is provided with multiple sets of limit posts 5 216. The limit posts 5 216 are inserted into the placement plate 212. When hopper 202 is installed, the placement plate 212 is lifted, and when hopper 202 and placement plate 212 move in the upper section of movement groove 1 208 and movement groove 2 209, the limit posts 5 216 and placement plate 212 are inserted into each other and then descend synchronously. When hopper 202 rotates, it drives placement plate 212 to rotate. Hopper 202 is provided with a leakage hole. A part of the material is placed in hopper 202 for soaking, and another part of the material is placed on placement plate 212 for soaking.

[0037] refer to Figures 10 to 15 As shown, the processing component 3 includes an adjustment frame 301 that is slidably mounted on the galvanizing tank 101. The adjustment frame 301 is connected to the lead screw on the output shaft of the motor 107 by a thread. When the motor 107 starts, it drives the adjustment frame 301 to slide on the galvanizing tank 101. An adjustment frame 302 is slidably mounted on the adjustment frame 301. A motor 303 is mounted on the side of the adjustment frame 301. A lead screw is mounted on the output shaft of the motor 303. The adjustment frame 302 is connected to the lead screw on the output shaft of the motor 303 by a thread. When the motor 303 starts, it drives the adjustment frame 302 to slide on the adjustment frame 301.

[0038] A set of transfer frames 305 is slidably installed on both sides of the adjustment frame 202. When the two sets of transfer frames 305 approach each other, they are inserted into the transfer block 203. After the transfer block 203 is inserted into the transfer frame 305, the hopper 1 201 is fixed to the transfer frame 305.

[0039] A first actuating disc 306 is coaxially rotatably mounted on the second adjusting frame 302. Multiple sets of actuating columns 307 are mounted at the lower end of the first actuating disc 306. A fourth motor 308 is mounted on the second adjusting frame 302. A fourth gear 327 is mounted on the output shaft of the fourth motor 308. A first gear 309 is mounted on the first actuating disc 306. The second moving groove 209 meshes with the fourth gear 327. When the fourth motor 308 starts, it drives the fourth gear 327 to rotate. The fourth gear 327 drives the first actuating disc 306 and the actuating columns 307 to rotate. When the actuating columns 307 descend, they engage with the third limiting column 206. The fourth motor 308 drives the first actuating disc 306 to rotate reciprocally. The first actuating disc 306 drives the third limiting column 206, the mounting frame 205, and the actuating plate 210 to swing through the actuating columns 307. The actuating plate 210 pushes the material to move.

[0040] An installation frame 313 is slidably mounted inside the adjusting frame 2 302. An electric cylinder 2 310 is mounted on the upper end of the adjusting frame 2 302, and its movable end is connected to the installation frame 313. When the electric cylinder 2 310 is started, it drives the installation frame 313 to move. A buffer frame 314 is slidably mounted on the lower end of the installation frame 313. A spring 2 315 is installed between the installation frame 313 and the buffer frame 314. A motor 5 316 is installed inside the buffer frame 314. A limit plate 317 is mounted on the output shaft of the motor 5 316. Multiple sets of limit blocks 318 are mounted on the lower end of the limit plate 317. When the machine 316 starts, it drives the limit plate 317 and the limit block 318 to rotate. When the mounting frame 313 descends, it drives the limit block 318 to engage with the limit post 4 213. When the limit plate 317 rotates, it drives the limit block 318 to rotate. The limit block 318 drives the hopper 202 and the placement plate 212 to rotate. When the hopper 202 and the placement plate 212 rotate, they slide on the cylindrical cam 207. At this time, the hopper 202 pushes the limit plate 317 and the buffer frame 314 to move. At this time, the spring 2 315 is compressed. Then the buffer frame 314 is reset by the setting of the spring 2 315.

[0041] A mounting plate 320 is coaxially mounted on mounting bracket 313. Two sets of locking blocks 322 are slidably mounted on the lower end of mounting plate 320. Motors 7 321 are mounted on both sides of mounting plate 320. The output shaft of motors 7 321 is equipped with a lead screw. The locking blocks 322 are threadedly connected to the lead screw of the output shaft of motors 7 321. When motors 7 321 start, they drive the two sets of locking blocks 322 to move closer to each other. The two sets of locking blocks 322 are inserted into the limit post 4 213 to complete the alignment of hopper 2 20. When hopper 202 needs to be removed separately, the mounting bracket 313 and the adjusting bracket 302 are lifted. The motor 303 and the mounting bracket 313 drive the locking block 322 to rise. The locking block 322 removes hopper 202 from hopper 1 201. Since hopper 202 moves on the cylindrical cam 207, hopper 202 rotates. When hopper 202 rotates, it drives the mounting plate 320 to rotate, thus realizing the disassembly of hopper 202.

[0042] An installation frame 312 is slidably installed inside the adjusting frame 301. An electric cylinder 311 is installed on the side of the transfer frame 305. The movable end of the electric cylinder 311 is connected to the installation frame 312. A dipping disc 324 is coaxially rotatably installed on the installation frame 312. Multiple dipping plates 326 are installed at the lower end of the dipping disc 324. A gear 325 is installed on the dipping disc 324. A motor 319 is installed inside the installation frame 312. A gear 323 is installed on the output shaft of the motor 319. Gear 323 meshes with gear 325. When the motor 319 starts, it drives gear 323 to rotate. Gear 323 drives the dipping disc 324 to rotate through gear 325. The dipping disc 324 drives multiple dipping plates 326 to rotate. The dipping plates 326 move the material in the hopper 202.

[0043] All components described in this invention that come into contact with molten zinc are coated with a silicon carbide plasma spray coating with a thickness of 0.15~0.2mm. The molten zinc on the surface of each component is cleaned regularly to reduce the corrosion of the components by the molten zinc and to reduce the residue on the surface of the components.

[0044] Working principle: To galvanize the material, firstly, assemble the feeding assembly 2. First, install the placing plate 212 on the cylindrical cam 207. At this time, the connecting column 215 slides within the moving groove 208. After the placing plate 212 reaches the bottom of the hopper 201, install the actuating plate 210 within the mounting bracket 205, and secure it to the mounting bracket 205 with bolts 211. Then, place the material to be galvanized onto the placing plate 212. After placing the material, install the hopper 202 on the cylindrical cam 207. (The text abruptly ends here, likely due to an incomplete sentence or missing information.) The placement plate 212 is lifted upwards, and the limiting post 216 is inserted into the placement plate 212. The placement plate 212 and the hopper 202 descend synchronously. At this time, the connecting post 214 slides in the motion groove 209. At the same time, the hopper 202 drives the limiting post 216 to be inserted into the placement plate 212, completing the connection between the hopper 202 and the placement plate 212. The galvanized material is placed in the hopper 202 to achieve layered placement of the material. If the soaking time of the material on the placement plate 212 and the material in the hopper 202 is inconsistent, the material with the shorter soaking time is placed in the hopper 202.

[0045] After completing the assembly and placement of the feeding assembly 2 and the material, the feeding assembly 2 is placed on the placement platform 108. Before placing the feeding assembly 2, the zinc dross on the surface of the zinc liquid in the galvanizing tank 101 is cleaned. In the initial state, the scraper 105 is on the side away from the recovery tank 104. The driving adjustment plate 102 slides on the galvanizing tank 101. The adjustment plate 102 drives the scraper 105 to move. The scraper 105 scrapes the zinc dross on the surface of the zinc liquid and pushes the zinc dross towards the recovery tank 104. When the scraper 105 is in contact with the inclined block 110, the inclined block 110 presses the scraper 105. At this time, the scraper 105 pushes the zinc dross into the recovery tank 104 through the inclined block 110, completing the cleaning of the zinc dross. Then the driving adjustment plate 102 is reset.

[0046] The first adjustment frame 301 is driven to move, and the first adjustment frame 301 drives the second adjustment frame 302 to reach above the placement platform 108. The second adjustment frame 302 is driven to move, so that the second adjustment frame 302 drives the transfer frame 305 to move. The transfer frame 305 is aligned with the transfer block 203. The two sets of transfer frames 305 are driven to move closer to each other. The transfer frame 305 is inserted into the transfer block 203. The two sets of transfer frames 305 complete the fixation of the feeding component 2 through the transfer block 203. The second adjustment frame 302 and the first adjustment frame 301 are driven to move, and the feeding component 2 is placed on the first limit post 109, completing the transfer of the feeding component 2.

[0047] The feeding assembly 2 is placed in the galvanizing bath 101 for galvanizing immersion. When it is necessary to shake the material during the immersion process to prevent it from sticking, the first adjusting frame 301 is driven to move, so that the second adjusting frame 302 is concentrically aligned with the feeding assembly 2. The second adjusting frame 302 is driven to descend, and the second adjusting frame 302 drives the actuating column 307 to engage with the third limiting column 206. The lower opening of the second adjusting frame 302 engages with the second limiting column 204, and the second adjusting frame 302 fixes the second limiting column 204 to prevent the second limiting column 204 from rotating.

[0048] When it is necessary to shake the material in hopper 201, the mounting frame 313 is lowered. The mounting frame 313 drives the limiting block 318 to engage with the limiting post 413. At this time, the limiting block 318 limits the limiting post 413. The motor 516 is then started, driving the limiting plate 317 to rotate. The limiting plate 317 drives the limiting block 318 to rotate. The limiting block 318, through the limiting post 413, drives hopper 202 and the placement plate 212 to rotate. When hopper 202 and the placement plate 212 rotate, the connection... Column 1 214 slides in motion groove 209, and connecting column 215 slides in motion groove 208. At this time, hopper 202 and placement plate 212 rotate and slide up and down. When hopper 202 and placement plate 212 slide up and down, they drive buffer frame 314 to slide in mounting frame 313. Buffer frame 314 presses spring 2 315, and buffer frame 314 is reset by the deformation restoring force of spring 2 315, so as to realize the shaking of material by hopper 202 and placement plate 212 and prevent material from sticking together.

[0049] When the material in hopper 201 is heavy and needs to be moved, the second mounting frame 312 slides within the second adjusting frame 302. The second mounting frame 312 drives the second actuating disc 324 and the second actuating plate 326 to extend into the second hopper 202, activating the second gear 323 to rotate. The second gear 323 drives the third gear 325 to rotate, which in turn drives the second actuating disc 324 and the second actuating plate 326 to rotate. The second actuating plate 326 then moves the material in the second hopper 202.

[0050] When it is necessary to move the material on the placement plate 212, the drive gear 4 327 rotates alternately in both directions. The gear 4 327 drives the actuation disk 306 to rotate reciprocally through the gear 1 309. The actuation disk 306 drives the actuation column 307 to rotate. The actuation column 307 drives the limit column 3 206 to rotate. The limit column 3 206 drives the actuation plate 210 to rotate through the mounting bracket 205. The actuation plate 210 moves the material on the placement plate 212.

[0051] When the soaking time of the material in hopper 202 differs from that of the material on the placement plate 212, hopper 202 is removed from hopper 1 201 in advance. First, hopper 202 is reset, and the two sets of locking blocks 322 are driven to move closer to each other. The locking blocks 322 are inserted into the limit post 4 213 to fix hopper 202. The mounting frame 313 is driven to rise, and the adjusting frame 2 302 is driven to rise at the same time. At this time, hopper 202 is pulled out from the cylindrical cam 207. When hopper 202 rotates, it drives the locking blocks 322 to move closer to the mounting frame 201. When the disc 320 rotates, the second hopper 202 and the placement plate 212 rise synchronously. However, when the connecting column 1 214 and the second connecting column 215 move to the upper section of the first movement groove 208 and the second movement groove 209, they become linear lifts and drops. At this time, the second hopper 202 and the placement plate 212 are disconnected, the placement plate 212 is reset, and the second hopper 202 continues to rise and is removed from the first hopper 201. Then, the first adjustment frame 301 and the second adjustment frame 302 are driven to move and place the second hopper 202 on the placement platform 108, thus realizing the disassembly of the second hopper 202.

Claims

1. An anti-sticking device for the production of galvanized parts, characterized in that: The system includes a galvanizing assembly (1), which includes a galvanizing tank (101) containing molten zinc. A discharge assembly (2) is placed inside the galvanizing tank (101), and a cleaning mechanism is provided on the galvanizing tank (101) to clean the zinc dross. The feeding assembly (2) includes a hopper one (201), a hopper two (202) and a placement plate (212) are provided inside the hopper one (201), and a cylindrical cam (207) is provided inside the hopper one (201). The hopper two (202) and the placement plate (212) are slidably connected to the cylindrical cam (207). When the hopper two (202) and the placement plate (212) slide on the cylindrical cam (207), they cause the material to shake. A mounting bracket is slidably provided on the hopper one (201). (205) A toggle plate (210) is detachably provided on the mounting frame (205). The toggle plate (210) moves the material on the placement plate (212). Limiting posts (204) are provided on both sides of the hopper (201). Multiple sets of limiting posts (213) are provided at the upper end of the hopper (202). Multiple sets of limiting posts (216) are provided at the lower end of the hopper (202). The limiting posts (216) are inserted into the placement plate (212). The galvanizing assembly (1) is slidably provided with a processing assembly (3). The processing assembly (3) includes an adjustment frame one (301). An adjustment frame two (302) is slidably provided on the adjustment frame one (301). A buffer mechanism is provided inside the adjustment frame two (302). The buffer mechanism drives the hopper two (202) and the placement plate (212) to rotate. An installation frame two (312) is slidably provided inside the adjustment frame two (302). A toggle plate two (324) is rotatably provided on the installation frame two (312). Multiple sets of toggle plates two (326) are provided on the toggle plate two (324). The toggle plates two (326) toggle the material in the hopper two (202).

2. The anti-sticking device for galvanized parts production according to claim 1, characterized in that: The cleaning mechanism includes an adjusting plate (102) that is slidably installed on the galvanizing tank (101), a scraper (105) that is slidably arranged on the adjusting plate (102), and a spring (106) that is arranged between the scraper (105) and the adjusting plate (102).

3. The anti-sticking device for galvanized parts production according to claim 2, characterized in that: A recycling tank (104) is provided on the side of the galvanizing tank (101), and an inclined block (110) is provided on the side of the galvanizing tank (101) where the recycling tank (104) is provided. When the scraper (105) approaches the inclined block (110), it pushes the zinc dross into the recycling tank (104).

4. The anti-sticking device for galvanized parts production according to claim 1, characterized in that: Both sides of the first hopper (201) are provided with transfer blocks (203), and the second adjustment frame (302) is slidably provided with a transfer frame (305). The transfer frame (305) and the transfer block (203) are inserted to fix the first hopper (201).

5. The anti-sticking device for galvanized parts production according to claim 4, characterized in that: The adjustment frame 2 (302) is rotatably provided with a dial 1 (306), and the lower end of the dial 1 (306) is provided with multiple sets of dial posts (307). The mounting frame 1 (205) is provided with a limit post 3 (206), and the limit post 3 (206) is inserted into the dial post (307).

6. The anti-sticking device for galvanized parts production according to claim 5, characterized in that: The buffer mechanism includes a mounting frame three (313) rotatably installed in the adjustment frame two (302), a buffer frame (314) slidably provided at the lower end of the mounting frame three (313), a limit plate (317) rotatably provided at the lower end of the buffer frame (314), a limit block (318) provided on the limit plate (317), and the limit block (318) engaging with the limit post four (213).

7. The anti-sticking device for galvanized parts production according to claim 6, characterized in that: A spring (315) is provided between the mounting bracket three (313) and the buffer bracket (314).

8. The anti-sticking device for galvanized parts production according to claim 7, characterized in that: The mounting bracket three (313) is rotatably provided with a mounting plate (320), and a locking block (322) is slidably provided on the mounting plate (320). The locking block (322) is inserted into the limiting post four (213), and the locking block (322) is fixed to the hopper two (202) through the limiting post four (213).

9. The anti-sticking device for galvanized parts production according to claim 8, characterized in that: The lower end of the adjustment frame 2 (302) is provided with an opening, and the lower opening of the adjustment frame 2 (302) is inserted into the limiting post 2 (204) to limit the hopper 2 (202).

Images