A plating device for processing a branch nozzle

Abstract

The application provides a plating device for processing branch nozzles and relates to the technical field of plating devices, which comprises a plating box and an adjusting mechanism installed on the plating box. When the branch nozzle moves upward, the bottom of the branch nozzle is separated from the contact of the limiting seat and the branch nozzle placing plate, and at this time, the plating dead angle is eliminated. In the plating process, the branch nozzle is in contact with the limiting seat and the branch nozzle placing plate, and the two contact positions cannot realize plating, and at this time, the plating dead angle is formed. The dead angle can be eliminated by adjusting the position of the branch nozzle, and in the adjusting process, no separate electric element is needed to drive, the cost of the equipment is reduced, and the problem that when the branch nozzle is placed, the branch nozzle needs to be placed on the placing rack, and then the placing rack is in contact with the galvanizing liquid, at this time, the contact position of the branch nozzle and the placing rack cannot realize galvanizing, and there is a galvanizing dead angle.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of plating device, in particular to a kind of plating device for processing branch nozzle. BACKGROUND

[0002] In the processing of branch nozzle, it needs to be galvanized, the main purpose is to improve its rust resistance, in the process of galvanizing, branch nozzle needs to be contacted with galvanizing liquid to complete galvanizing, when placing branch nozzle, it needs to be placed on the placing rack, and then the placing rack is contacted with galvanizing liquid, at this time, the contact position of branch nozzle and placing rack cannot be galvanized, and there is a galvanizing dead angle. SUMMARY

[0003] Therefore, the present application provides a kind of plating device for processing branch nozzle, solve the problem that when placing branch nozzle, it needs to be placed on the placing rack, and then the placing rack is contacted with galvanizing liquid, at this time, the contact position of branch nozzle and placing rack cannot be galvanized, and there is a galvanizing dead angle.

[0004] The purpose and effect of the present application are achieved by the following specific technical means:

[0005] The present application provides a kind of plating device for processing branch nozzle, specifically comprising: plating box;

[0006] The adjusting mechanism is installed on the plating box.

[0007] Optionally, the adjusting mechanism is composed of a main body arm, an electric cylinder, a mounting rod, a rectangular mounting plate, a sliding rod, a branch nozzle placing plate, a first guide rod, a ball, a limiting seat, a first contact rod, a second contact rod, a protrusion, a third contact rod and a magnet, the main body arm is fixed on the plating box by bolts, the main body arm is concave, a electric cylinder is installed at the middle position of the top surface of the inner wall of the main body arm, a mounting rod is connected to the lower end of the electric cylinder through a flange, and the mounting rod is a ladder shaft structure.

[0008] Optionally, a rectangular mounting plate is fixed on the outer wall of the mounting rod, a sliding rod is slidably connected to the rectangular mounting plate in a rectangular array, the sliding rod is a ladder shaft structure, and a magnet is fixed to the lower end of each sliding rod;The branch nozzle placing plate is limitingly and slidably connected to the mounting rod, the branch nozzle placing plate is a rectangular plate structure, a first guide rod is welded to the branch nozzle placing plate in a rectangular array, and a ball is slidably connected to each first guide rod.

[0009] Optionally, the top surface of the branch nozzle placement plate is welded with a limiting seat in a rectangular array, the limiting seat is annular, the limiting seat is sleeved on the outer side of the first guide rod, the limiting seat is annular, and the branch nozzle is placed in the limiting seat, and the first guide rod penetrates through the branch nozzle; the top surface of the limiting seat is polished, and the top surface of the limiting seat is arc-shaped after polishing.

[0010] Optionally, the first guide rod is aligned with the magnet, the ball moves upward 10 cm under the attraction of the magnet when the branch nozzle placement plate moves upward 20 cm, and the branch nozzle moves upward 5 cm at this time; the left end surface and the right end surface of the inner wall of the main arm are both welded with a protrusion in a linear array, and the protrusion is semicylindrical.

[0011] The left end surface and the right end surface of the rectangular mounting plate are both welded with a third contact rod, the two third contact rods are both cylindrical rod-shaped structures, the outer sides of the two third contact rods are polished, the outer sides of the two third contact rods are both semispherical at one end after polishing, the third contact rod is aligned with the protrusion, the third contact rod is in continuous contact with the protrusion when the electric cylinder is retracted, the rectangular mounting plate and the branch nozzle placement plate are in a continuous vibration state at this time, and the branch nozzle is placed on the limiting seat when plating, the branch nozzle is sleeved on the outer sides of the first guide rod and the ball at this time, the installation efficiency of the branch nozzle can be improved because the top surface of the limiting seat is arc-shaped after polishing, the branch nozzle placement plate and the branch nozzle placed on the branch nozzle placement plate are both in contact with the plating liquid when the electric cylinder is stretched after the branch nozzle is installed, preliminary plating is performed at this time, the second contact rod is in contact with the top surface of the auxiliary plate when the electric cylinder continues to stretch, the branch nozzle placement plate moves upward under the limiting action of the auxiliary plate at this time, the ball moves upward under the adsorption action of the magnet, the bottom of the branch nozzle is separated from the contact of the limiting seat and the branch nozzle placement plate when the ball moves upward, and the plating dead angle is eliminated at this time.

[0012] The electric cylinder continues to stretch, the second contact rod is in contact with the bottom end surface of the rectangular mounting plate at this time, the branch nozzle placement plate cannot continue to move upward under the limiting action of the rectangular mounting plate, and the auxiliary plate moves downward at this time.

[0013] Optionally, a flow mechanism is installed in the plating box.

[0014] The flow mechanism comprises a second guide rod, an auxiliary plate, a through hole, a spiral spring and a connecting rod, two connecting rods are provided, the two connecting rods are symmetrically welded in the plating box, two second guide rods are slidably connected to each connecting rod, the four second guide rods are in a ladder shaft structure, the upper end of each second guide rod is welded with the bottom end surface of the auxiliary plate, and a spiral spring for upward resetting of the auxiliary plate is sleeved on each second guide rod.

[0015] Optionally, the auxiliary plate is a rectangular plate structure, and through holes are linearly arranged on the auxiliary plate, the through holes are rectangular hole structures, and the linearly arranged through holes jointly form an auxiliary mixing structure of the auxiliary plate.

[0016] Optionally, the connecting rod is a rectangular rod structure, and the top end surface of the connecting rod is a sharp structure after being cut, when the auxiliary plate is pressed, the auxiliary plate moves downward, at this time, the spiral spring is compressed, and the plating liquid in the plating box can flow faster during the downward movement of the auxiliary plate, thereby improving the plating effect on the branch nozzle;

[0017] At the same time, because the through holes are linearly arranged on the auxiliary plate, the through holes are rectangular hole structures, and the linearly arranged through holes jointly form an auxiliary mixing structure of the auxiliary plate, when the auxiliary plate moves downward, the through holes are in a jet shape, at this time, the flow speed of the liquid in the plating box can be improved through the jet, and the plating effect is further improved.

[0018] Optionally, the plating box is provided with a cleaning mechanism; the cleaning mechanism comprises a pull arm and a scraping block, the pull arm is slidingly connected in the plating box, the pull arm is welded with the scraping block at the rear side, the bottom end surface of the scraping block is in contact with the bottom end surface of the inner wall of the plating box, and the top end surface of the scraping block is an inclined structure; when the residue needs to be cleaned, the pull arm can be pulled directly, the residue can be collected through the scraping block when the pull arm is pulled, and subsequent cleaning is facilitated; during use, because the top end surface of the scraping block is an inclined structure, residue can be avoided on the scraping block, and the cleaning quality of the residue is ensured.

[0019] Optionally, the top end surface of the branch nozzle placing plate is symmetrically welded with two first contact rods, both the first contact rods are rectangular rod structures, and the top end surface of the first contact rod is in contact with the bottom end surface of the rectangular mounting plate when the branch nozzle placing plate moves upward.

[0020] Optionally, the bottom end surface of the branch nozzle placing plate is symmetrically welded with two second contact rods, both the second contact rods are rectangular rod structures, and the second contact rod is in contact with the auxiliary plate when the branch nozzle placing plate moves downward.

[0021] Optionally, the bottom end surface of the plating box is symmetrically attached with two supporting protection blocks, both the supporting protection blocks are made of rubber;

[0022] Both the supporting protection blocks are L-shaped structures, and both the supporting protection blocks are attached to the left end surface and the right end surface of the plating box respectively;

[0023] Both the left end face and the right end face of the plating box are welded with an auxiliary seat, the auxiliary seat is a concave structure, both auxiliary seats are clamped with the main arm, and the two auxiliary seats jointly constitute the auxiliary fixing structure of the main arm. When placed, the two supporting protection blocks can realize the support and elastic protection of the plating box, avoiding the bump damage of the plating box during placement. Since the two supporting protection blocks are both L-shaped structures, the two supporting protection blocks are adhered to the left end face and the right end face of the plating box respectively, so that the adhesion effect between the supporting protection block and the plating box can be improved.

[0024] In use, the auxiliary seat can realize the limiting fixation of the main arm, ensuring the stability of the main arm.

[0025] Advantages

[0026] The adjusting mechanism is provided. Through the adjusting mechanism, the branch pipe nozzle placing plate and the branch pipe nozzle placed on the branch pipe nozzle placing plate are in contact with the plating liquid when the electric cylinder is stretched. At this time, preliminary plating is carried out. When the electric cylinder continues to stretch, the second contact rod contacts the top end face of the auxiliary plate. At this time, the branch pipe nozzle placing plate moves upward under the limiting action of the auxiliary plate. At this time, the ball moves upward under the adsorption action of the magnet. When the ball moves upward, it will drive the branch pipe nozzle to move upward. When the branch pipe nozzle moves upward, the bottom of the branch pipe nozzle is separated from the contact of the limiting seat and the branch pipe nozzle placing plate. At this time, the plating dead angle is eliminated. In the plating process, because the branch pipe nozzle is in contact with the limiting seat, and the branch pipe nozzle is also in contact with the branch pipe nozzle placing plate, the two contact positions cannot be plated. At this time, a plating dead angle is formed. By adjusting the position of the branch pipe nozzle, the dead angle can be eliminated, and no separate electric element is needed to drive during adjustment, reducing the cost of the equipment.

[0027] The limiting seat is provided. When placing the branch pipe nozzle, the branch pipe nozzle is placed on the limiting seat. At this time, the branch pipe nozzle is sleeved on the outside of the first guide rod and the ball. At this time, because the top end face of the limiting seat is polished, the top end face of the limiting seat is arc-shaped after polishing. Therefore, the installation efficiency of the branch pipe nozzle can be improved, the placement efficiency is improved, and the branch pipe nozzle will not be bumped.

[0028] After the branch pipe nozzle is installed, the electric cylinder continues to stretch. At this time, the second contact rod contacts the bottom end face of the rectangular mounting plate. Under the limiting action of the rectangular mounting plate, the branch pipe nozzle placing plate cannot continue to move upward. At this time, the auxiliary plate will move downward.

[0029] The flow mechanism is arranged, through the arrangement of the flow mechanism, on one hand, when the auxiliary plate is extruded, the auxiliary plate moves downward, at this time, the helical spring is compressed, the plating liquid in the plating box can be accelerated to flow in the process that the auxiliary plate moves downward, the plating effect on the branch nozzle can be improved in the process that the plating liquid is accelerated to flow, on the other hand, the through holes are linearly arranged on the auxiliary plate, the through holes are rectangular hole structures, the linearly arranged through holes jointly form the auxiliary mixing structure of the auxiliary plate, when the auxiliary plate moves downward, the through holes are in the form of jet, at this time, the flow speed of the liquid in the plating box can be improved through the jet, the plating effect is further improved, the plating efficiency can be improved by accelerating the flow of the plating liquid.

[0030] The support protection block and the auxiliary seat are arranged, on one hand, the two support protection blocks can support and elastically protect the plating box, so that the plating box is prevented from being damaged due to collision when being placed, and since the two support protection blocks are L-shaped structures and are adhered to the left end surface and the right end surface of the plating box respectively, the adhesion effect between the support protection block and the plating box can be improved, on the other hand, in the process of use, the auxiliary seat can be used for limiting and fixing the main body arm, so that the stability of the main body arm is ensured.

[0031] The cleaning mechanism is arranged, when the residue needs to be cleaned, the pull arm can be directly pulled, the residue can be collected through the scraper when the pull arm is pulled, so that subsequent cleaning is facilitated, in the process of use, since the top end surface of the scraper is an inclined structure, the residue can be prevented from remaining on the scraper, so that the cleaning quality of the residue is ensured, the cleaning is more convenient and fast, and the practicality is high. BRIEF DESCRIPTION OF DRAWINGS

[0032] In order to more clearly illustrate the technical scheme of the embodiments of the present application, the drawings of the embodiments will be briefly introduced below.

[0033] The drawings in the following description only relate to some embodiments of the present application, and are not limited to the present application.

[0034] In the drawings:

[0035] Figure 1 is the axial view structural schematic diagram of the plating device for processing the branch nozzle of the present application.

[0036] Figure 2 is the main view structural schematic diagram of the plating device for processing the branch nozzle of the present application.

[0037] Figure 3 is the axial view structural schematic diagram of the plating device for processing the branch nozzle of the present application.

[0038] Figure 4 is the axial view structural schematic diagram of the adjusting mechanism of the present application.

[0039] Figure 5 Figure 1 is a front view of the first guide rod, the ball, the limiting seat and the branch nozzle after being cut open according to the present application.

[0040] Figure 6 Figure 2 is a front view of the adjusted structure according to the present application. Figure 5

[0041] Figure 7 Figure 3 is a front view of the flow mechanism according to the present application.

[0042] Figure 8 Figure 4 is a front view of the cleaning mechanism according to the present application.

[0043] List of reference signs

[0044] 1, plating box; 101, support protection block; 102, auxiliary seat; 2, adjusting mechanism; 201, main body arm; 202, electric cylinder; 203, mounting rod; 204, rectangular mounting plate; 205, sliding rod; 206, branch nozzle placing plate; 207, first guide rod; 208, ball; 209, limiting seat; 210, first contact rod; 211, second contact rod; 212, protrusion; 213, third contact rod; 214, magnet; 3, flow mechanism; 301, second guide rod; 302, auxiliary plate; 303, through hole; 304, spiral spring; 305, connecting rod; 4, cleaning mechanism; 401, pull arm; 402, scraping block; 5, branch nozzle. DETAILED DESCRIPTION

[0045] In order to make the purpose, scheme and advantages of the technical solutions of the present application clearer, the technical solutions of the embodiments of the present application will be described clearly and completely below in combination with the drawings of the specific embodiments of the present application. Unless otherwise specified, the terms used herein have the meanings commonly used in the art. The same reference signs in the drawings represent the same components.

[0046] Embodiment one:

[0047] Please refer to Figures 1 to 8 :

[0048] The present application provides a plating device for processing a branch nozzle, comprising: a plating box 1; and an adjusting mechanism 2 installed on the plating box 1.

[0049] ​The adjusting mechanism 2 is composed of a main arm 201, an electric cylinder 202, a mounting rod 203, a rectangular mounting plate 204, a sliding rod 205, a branch nozzle placing plate 206, a first guide rod 207, a ball 208, a limiting seat 209, a first contact rod 210, a second contact rod 211, a protrusion 212 and a magnet 214.

[0050] The rectangular mounting plate 204 is fixed on the outer wall of the mounting rod 203, the sliding rod 205 is in sliding connection with the rectangular mounting plate 204 in a rectangular array, and the sliding rod 205 is in a ladder shaft structure.

[0051] The branch nozzle placing plate 206 is in limiting sliding connection with the mounting rod 203, the branch nozzle placing plate 206 is in a rectangular plate structure, the first guide rod 207 is welded on the branch nozzle placing plate 206 in a rectangular array, and the ball 208 is in sliding connection with the first guide rod 207.

[0052] The limiting seat 209 is welded on the top end surface of the branch nozzle placing plate 206 in a rectangular array, the limiting seat 209 is in a ring structure, the limiting seat 209 is sleeved on the outer side of the first guide rod 207, the limiting seat 209 is in a ring structure, the branch nozzle 5 is placed in the limiting seat 209, and the first guide rod 207 penetrates through the branch nozzle.

[0053] The top end surface of the limiting seat 209 is polished, and the top end surface of the limiting seat 209 is in an arc structure after polishing.

[0054] The first guide rod 207 is in position opposite to the magnet 214, the ball 208 moves upward by 10 cm under the action of the magnetic force of the magnet 214 when the branch nozzle placing plate 206 moves upward by 20 cm, and the branch nozzle 5 moves upward by 5 cm.

[0055] The protrusion 212 is welded on the left end surface and the right end surface of the inner wall of the main arm 201 in a linear array, and the protrusion 212 is in a semicylindrical structure.

[0056] The left end face and the right end face of the rectangular mounting plate 204 are welded with a third contact rod 213, both of which are cylindrical rod structures, and the outer sides of both of the third contact rods 213 are polished, and the outer sides of both of the third contact rods 213 are hemispherical structures after polishing, the third contact rod 213 is in alignment with the protrusion 212, and the third contact rod 213 is in continuous contact with the protrusion 212 when the electric cylinder 202 is retracted, at which time the rectangular mounting plate 204 and the branch pipe nozzle placing plate 206 are in a continuous vibration state, and during plating, the branch pipe nozzle 5 is first placed on the limiting seat 209, at which time the branch pipe nozzle 5 is sleeved on the outer sides of the first guide rod 207 and the ball 208, at which time the top end face of the limiting seat 209 is polished to be an arc-shaped structure, so that the installation efficiency of the branch pipe nozzle 5 is improved; after the branch pipe nozzle 5 is installed, the branch pipe nozzle placing plate 206 and the branch pipe nozzle 5 placed on the branch pipe nozzle placing plate 206 are in contact with the plating liquid when the electric cylinder 202 is controlled to extend, at which time preliminary plating is performed, and when the electric cylinder 202 continues to extend, the second contact rod 211 is in contact with the top end face of the auxiliary plate 302, at which time the branch pipe nozzle placing plate 206 moves upward under the limiting action of the auxiliary plate 302, at which time the ball 208 moves upward under the adsorption action of the magnet 214, and when the ball 208 moves upward, the branch pipe nozzle 5 moves upward, and the bottom of the branch pipe nozzle 5 is separated from the contact of the limiting seat 209 and the branch pipe nozzle placing plate 206, at which time the plating dead angle is eliminated.

[0057] The electric cylinder 202 continues to be controlled to extend, at which time the second contact rod 211 is in contact with the bottom end face of the rectangular mounting plate 204, and the branch pipe nozzle placing plate 206 cannot continue to move upward under the limiting action of the rectangular mounting plate 204, at which time the auxiliary plate 302 moves downward.

[0058] The plating box 1 is provided with a cleaning mechanism 4.

[0059] The cleaning mechanism 4 is composed of a pull arm 401 and a scraping block 402, the pull arm 401 is slidingly connected in the plating box 1, the pull arm 401 is welded with the scraping block 402 at the rear side, and the bottom end face of the scraping block 402 is in contact with the bottom end face of the inner wall of the plating box 1.

[0060] The top end face of the scraping block 402 is an inclined structure, when it is necessary to clean the residues, the pull arm 401 can be directly pulled, and the residues can be collected through the scraping block 402 when the pull arm 401 is pulled, which facilitates subsequent cleaning; during use, because the top end face of the scraping block 402 is an inclined structure, residues can be avoided from remaining on the scraping block 402, thereby ensuring the cleaning quality of the residues.

[0061] Example two:

[0062] On the basis of example one, as Figure 3 andFigure 7 As shown in the drawings, it also comprises a flow mechanism 3, which is installed in the plating box 1.

[0063] The flow mechanism 3 is composed of a second guide rod 301, an auxiliary plate 302, a through hole 303, a spiral spring 304 and a connecting rod 305. There are two connecting rods 305, which are symmetrically welded in the plating box 1. Each connecting rod 305 is slidably connected with two second guide rods 301. The four second guide rods 301 are in a stepped shaft structure. The upper end of each second guide rod 301 is welded with the bottom end face of the auxiliary plate 302. Each second guide rod 301 is sleeved with a spiral spring 304 for the upward reset of the auxiliary plate 302.

[0064] The auxiliary plate 302 is in a rectangular plate structure. The through holes 303 are linearly arrayed on the auxiliary plate 302 and are in a rectangular hole structure. The linearly arrayed through holes 303 together form an auxiliary mixing structure of the auxiliary plate 302.

[0065] The connecting rod 305 is in a rectangular rod structure. The top end face of the connecting rod 305 is treated by cutting. After the cutting treatment, the top end face of the connecting rod 305 is in a sharp structure. When the auxiliary plate 302 is pressed, the auxiliary plate 302 moves downward. At this time, the spiral spring 304 is compressed. During the downward movement of the auxiliary plate 302, the plating liquid in the plating box 1 can be accelerated to flow, which can improve the plating effect on the branch nozzle 5.

[0066] At the same time, because the through holes 303 are linearly arrayed on the auxiliary plate 302 and are in a rectangular hole structure, the linearly arrayed through holes 303 together form an auxiliary mixing structure of the auxiliary plate 302. When the auxiliary plate 302 moves downward, the through holes 303 are in a jet shape. At this time, the flow speed of the liquid in the plating box 1 can be improved through the jet, which further improves the plating effect.

[0067] Example Three:

[0068] On the basis of Example Two, as shown in the drawings, it also comprises a support protection block 101 and an auxiliary seat 102. The top end face of the branch nozzle placing plate 206 is symmetrically welded with two first contact rods 210, which are in a rectangular rod structure. When the branch nozzle placing plate 206 moves upward, the top end face of the first contact rod 210 is in contact with the bottom end face of the rectangular mounting plate 204. Figure 3 Figure 5 And Figure 6 As shown in the drawings, it also comprises a support protection block 101 and an auxiliary seat 102. The top end face of the branch nozzle placing plate 206 is symmetrically welded with two first contact rods 210, which are in a rectangular rod structure. When the branch nozzle placing plate 206 moves upward, the top end face of the first contact rod 210 is in contact with the bottom end face of the rectangular mounting plate 204.

[0069] Two second contact rods 211 are symmetrically welded on the bottom end face of the branch nozzle placing plate 206, both of which are rectangular rod-shaped structures, and the second contact rods 211 are in contact with the auxiliary plate 302 when the branch nozzle placing plate 206 moves downward.

[0070] Two support protection blocks 101 are symmetrically adhered to the bottom end face of the plating box 1, both of which are made of rubber;

[0071] Both of the support protection blocks 101 are L-shaped structures, and are adhered to the left end face and the right end face of the plating box 1, respectively.

[0072] Both of the left end face and the right end face of the plating box 1 are welded with an auxiliary seat 102, which is concave-shaped, and both of the auxiliary seats 102 are clamped with the main arm 201, and together form an auxiliary fixing structure of the main arm 201. When placed, the two support protection blocks 101 can realize the support and elastic protection of the plating box 1, avoiding damage caused by bumping during placement. Since both of the support protection blocks 101 are L-shaped structures, and are adhered to the left end face and the right end face of the plating box 1, respectively, the adhesion effect between the support protection blocks 101 and the plating box 1 can be improved. During use, the auxiliary seat 102 can realize the limiting and fixing of the main arm 201, ensuring the stability of the main arm 201.

[0073] The specific use and role of the embodiment are as follows:

[0074] During plating, first place the branch nozzle 5 on the limiting seat 209, and make sure that the branch nozzle 5 is sleeved outside the first guide rod 207 and the ball 208. Since the top end face of the limiting seat 209 is arc-shaped after polishing, the installation efficiency of the branch nozzle 5 can be improved.

[0075] After the branch nozzle 5 is installed, the branch nozzle placing plate 206 and the branch nozzle 5 placed thereon are in contact with the plating liquid when the electric cylinder 202 is controlled to extend. At this time, preliminary plating is carried out. When the electric cylinder 202 continues to extend, the second contact rod 211 is in contact with the top end face of the auxiliary plate 302. At this time, the branch nozzle placing plate 206 moves upward under the limiting action of the auxiliary plate 302. At this time, the ball 208 moves upward under the adsorption action of the magnet 214, which drives the branch nozzle 5 to move upward. When the branch nozzle 5 moves upward, the bottom of the branch nozzle 5 is separated from the contact of the limiting seat 209 and the branch nozzle placing plate 206, thus eliminating the plating dead angle.

[0076] Continue to control the electric cylinder 202 to stretch, at this time the second contact rod 211 is in contact with the bottom end face of the rectangular mounting plate 204, and the branch nozzle placing plate 206 cannot continue to move upward under the limiting action of the rectangular mounting plate 204, at this time the auxiliary plate 302 will move downward;

[0077] When the auxiliary plate 302 is extruded, the auxiliary plate 302 moves downward, at this time the spiral spring 304 is compressed, and the plating liquid in the plating box 1 can be accelerated to flow in the process of the downward movement of the auxiliary plate 302, and the plating effect on the branch nozzle 5 can be improved in the process of the accelerated flow of the plating liquid;

[0078] At the same time, because the through holes 303 are linearly arrayed on the auxiliary plate 302, the through holes 303 are rectangular hole structures, and the linearly arrayed through holes 303 jointly constitute the auxiliary mixing structure of the auxiliary plate 302, so that the through holes 303 are in a jet flow state when the auxiliary plate 302 moves downward, and the flow speed of the liquid in the plating box 1 can be improved through the jet flow, and the plating effect is further improved;

[0079] When it is necessary to clean the residues, the pull arm 401 can be directly pulled, and the residues can be collected through the scraper block 402 when the pull arm 401 is pulled, which facilitates subsequent cleaning; in the use process, because the top end face of the scraper block 402 is an inclined structure, residues can be avoided from remaining on the scraper block 402, thereby ensuring the cleaning quality of the residues;

[0080] When placed, the plating box 1 can be supported and elastically protected through the two supporting protection blocks 101, so that the plating box 1 is prevented from being damaged by knocking during placement, and because the two supporting protection blocks 101 are L-shaped structures and are respectively attached to the left end face and the right end face of the plating box 1, the attachment effect between the supporting protection blocks 101 and the plating box 1 can be improved;

[0081] In the use process, the limiting fixation of the main body arm 201 can be achieved through the setting of the auxiliary seat 102, so that the stability of the main body arm 201 is ensured.

Claims

1. A plating device for processing a spout nozzle, characterized by comprising: The utility model relates to a plating box is provided with a flow mechanism and an adjusting mechanism, the flow mechanism is installed in the plating box, the adjusting mechanism is installed on the plating box, the flow mechanism is used for the flow of the plating solution in the plating box, and the adjusting mechanism is used for the adjustment of the position of the branch pipe nozzle in the plating box. The plating box (1) is provided with an adjusting mechanism (2); the adjusting mechanism (2) is composed of a main arm (201), an electric cylinder (202), a mounting rod (203), a rectangular mounting plate (204), a sliding rod (205), a branch pipe nozzle placing plate (206), a first guide rod (207), a ball (208), a limiting seat (209), a first contact rod (210), a second contact rod (211), a convex (212), a third contact rod (213) and a magnet (214); the main arm (201) is fixed on the plating box (1) by bolts; the main arm (201) is concave in structure; an electric cylinder (202) is installed on the inner wall top end face of the main arm (201); a mounting rod (203) is connected to the lower end of the electric cylinder (202) by a flange; the mounting rod (203) is in ladder shaft structure; a rectangular mounting plate (204) is fixed on the outer wall of the mounting rod (203); a sliding rod (205) is slidably connected to the rectangular mounting plate (204) in a rectangular array; the sliding rod (205) is in ladder shaft structure; a magnet (214) is fixed to the lower end of each sliding rod (205); the branch pipe nozzle placing plate (206) is limitingly and slidably connected to the mounting rod (203); the branch pipe nozzle placing plate (206) is in rectangular plate structure; a first guide rod (207) is welded to the branch pipe nozzle placing plate (206) in a rectangular array; a ball (208) is slidably connected to each first guide rod (207); a limiting seat (209) is welded to the top end face of the branch pipe nozzle placing plate (206) in a rectangular array; the limiting seat (209) is in ring structure; the limiting seat (209) is sleeved on the outer side of the first guide rod (207); the limiting seat (209) is in ring structure; a branch pipe nozzle (5) is placed in the limiting seat (209); the first guide rod (207) penetrates through the branch pipe nozzle; the top end face of the limiting seat (209) is polished; the top end face of the limiting seat (209) is arc-shaped in structure after polishing; A flow mechanism (3) is installed in the plating box (1); The flow mechanism (3) is composed of a second guide rod (301), an auxiliary plate (302), a through hole (303), a spiral spring (304) and a connecting rod (305); two connecting rods (305) are provided; the two connecting rods (305) are symmetrically welded in the plating box (1); two second guide rods (301) are slidably connected to each connecting rod (305); the four second guide rods (301) are in ladder shaft structure; the upper end of each second guide rod (301) is welded to the bottom end face of the auxiliary plate (302); a spiral spring (304) for the upward reset of the auxiliary plate (302) is sleeved on each second guide rod (301). When the electric cylinder (202) continues to stretch, the second contact rod (211) is in contact with the top end surface of the auxiliary plate (302), at this time the support nozzle placing plate (206) moves upward under the limiting action of the auxiliary plate (302), at this time the ball (208) moves upward under the adsorption action of the magnet (214), when the ball (208) moves upward, it drives the support nozzle (5) to move upward, when the support nozzle (5) moves upward, the bottom of the support nozzle (5) is separated from the limiting seat (209) and the contact of the support nozzle placing plate (206), at this time the plating dead angle is eliminated.

2. The apparatus for coating a spout according to claim 1, wherein: The first guide rod (207) is in alignment with the magnet (214), when the support nozzle placing plate (206) moves upward by 20cm, the ball (208) moves upward by 10cm under the suction force of the magnet (214), at this time the support nozzle (5) moves upward by 5cm.

3. The apparatus for coating a spout according to claim 1, wherein: The left end surface and the right end surface of the inner wall of the main arm (201) are linearly arrayed with protrusions (212) welded thereon, and the protrusions (212) are semicylindrical structures; The left end surface and the right end surface of the rectangular mounting plate (204) are each welded with a third contact rod (213), and the two third contact rods (213) are cylindrical rod structures, the outer sides of the two third contact rods (213) are polished, and after polishing, the outer sides of the two third contact rods (213) are each semispherical structures, the third contact rod (213) is in alignment with the protrusion (212), when the electric cylinder (202) contracts, the third contact rod (213) is in continuous contact with the protrusion (212), at this time the rectangular mounting plate (204) and the support nozzle placing plate (206) are in continuous vibration state.

4. The apparatus for coating a spout according to claim 1, wherein: The auxiliary plate (302) is a rectangular plate structure, and through holes (303) are linearly arrayed on the auxiliary plate (302), and the through holes (303) are rectangular hole structures, and the linearly arrayed through holes (303) together form an auxiliary mixing structure of the auxiliary plate (302).

5. The apparatus for coating a spout according to claim 1, wherein: The connecting rod (305) is a rectangular rod structure, and the top end surface of the connecting rod (305) is cut, and after cutting, the top end surface of the connecting rod (305) is a sharp structure.

6. The apparatus for coating a spout according to claim 1, wherein: The plating box (1) is provided with a cleaning mechanism (4); The cleaning mechanism (4) is composed of a pull arm (401) and a scraping block (402), the pull arm (401) is slidingly connected in the plating box (1), the scraping block (402) is welded on the rear side of the pull arm (401), and the bottom end surface of the scraping block (402) is in contact with the bottom end surface of the inner wall of the plating box (1). The top end surface of the scraping block (402) is an inclined structure.

7. The apparatus for coating a spout according to claim 1, wherein: The top end surface of the support nozzle placing plate (206) is symmetrically welded with two first contact rods (210), and the two first contact rods (210) are rectangular rod structures, when the support nozzle placing plate (206) moves upward, the top end surface of the first contact rod (210) is in contact with the bottom end surface of the rectangular mounting plate (204).

8. The apparatus for coating a spout according to claim 1, wherein: The bottom end face of the branch nozzle placing plate (206) is symmetrically welded with two second contact rods (211), both of which are rectangular rod-shaped structures. When the branch nozzle placing plate (206) moves downward, the second contact rods (211) are in contact with the auxiliary plate (302).

9. The apparatus for coating a spout according to claim 1, wherein: The bottom end face of the plating box (1) is symmetrically adhered with two supporting protection blocks (101), both of which are made of rubber; Both of the supporting protection blocks (101) are L-shaped structures, and are adhered to the left end face and the right end face of the plating box (1) respectively; The left end face and the right end face of the plating box (1) are both welded with an auxiliary seat (102), which is a concave structure. Both of the auxiliary seats (102) are clamped with the main body arm (201), and together form an auxiliary fixing structure of the main body arm (201).

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