A copper bar vulcanization production processing method

By designing the processing box and booster components, the copper busbar sulfidation process is made continuous and uniform, solving the problems of low efficiency and unevenness in copper busbar sulfidation, and improving the overall production efficiency and sulfidation quality.

CN120199551BActive Publication Date: 2025-10-24GUANGDONG CESKO GENERAL POWER TECHNOLOGY CO LTD +1
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Patent Information

Application Number
CN202510390497.0
Authority / Receiving Office
CN · China
Patent Type
Patents(China)
Current Assignee / Owner
Filing Date
2025-03-31
Publication Date
2025-10-24
Estimated Expiration
2045-03-31

AI Technical Summary

Technical Problem

The existing copper busbar sulfidation process is cumbersome, resulting in low production efficiency, and the uneven surface treatment of the copper busbar affects the sulfidation effect.

Method used

The system employs a processing box, a booster assembly, and a discharge assembly. A rotary plate drives the material box to rotate, enabling continuous pickling, sulfidation, and cleaning processes. Combined with hot air drying, this enhances the uniformity of copper busbar movement and the flipping effect.

Benefits of technology

It improves the overall efficiency and quality of copper busbar sulfidation treatment, ensures the uniformity of the sulfidation layer, reduces reaction dead zones, simplifies the process flow, and improves the convenience of material handling.

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Abstract

The application discloses a copper bar vulcanization production and processing method and belongs to the technical field of copper bar vulcanization processing. The copper bar vulcanization production and processing method comprises a treatment box, the inside of the treatment box is provided with a rotatable and adjustable circular rotating plate, a plurality of material placing boxes are fixed on the side surface of the circular rotating plate in a ring shape, a plurality of through holes d are formed in the side surface of the material placing box, a motion increasing assembly is arranged between the built-in plate and the circular rotating plate, a discharging assembly for assisting the discharge of the copper bars in the material placing box is arranged at the top end of the treatment box, and an open flow assembly is arranged at the bottom of the treatment box. The motion increasing assembly is arranged to continuously turn the copper bars in the material placing box and make the copper bars horizontally shake, so that the copper bars have multiple direction movements, the overall movement degree of the copper bars is effectively increased, the surface exposure comprehensiveness of the copper bars is further improved, the reaction dead angle is further reduced, the vulcanization layer is more uniformly distributed, and the multiple copper bars are sequentially and assistedly taken out through the cooperation of the rotating circular rotating plate and the discharging assembly, so that the material taking convenience is effectively improved.
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Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of copper bar sulfidation processing, in particular to a copper bar sulfidation production processing method. BACKGROUND

[0002] The copper bar is also called copper busbar or copper busbar, which is made of copper material, and the cross section is rectangular or chamfered (rounded) rectangular long conductor (now generally uses rounded copper bar to avoid producing sharp discharge), which plays a role in conveying current and connecting electrical equipment in the circuit, and the copper bar is widely used in electrical equipment, especially in complete power distribution device.

[0003] The copper bar sulfidation processing is a process of forming a sulfidation protective layer on the surface of the copper bar by chemical treatment, and the sulfidation layer (such as Cu2S and CuS) can effectively prevent the copper bar from oxidizing (such as blackening and copper green), especially in humid and sulfur-containing environment, and can enhance the corrosion resistance, and the sulfidation layer can reduce the contact resistance and reduce the electrochemical corrosion, which is suitable for electrical connection components such as busbar and switch contact, and can improve the electrical performance, and the hardness of the sulfidation film is higher than that of pure copper, which can improve the wear resistance and prolong the service life of the component. In the prior art, chemical sulfidation method, gas phase sulfidation method and electrochemical sulfidation method are usually used for sulfidation treatment of copper bar. When the chemical sulfidation method is used, the copper bar usually needs to be first pickled to remove the surface oxide and then immersed in a sulfidation solution (such as ammonium polysulfide and sodium sulfide solution). After reacting for several minutes to several hours at a certain temperature, a dense sulfidation layer is formed. Finally, the copper bar is cleaned and dried. The copper bar needs to go through the above-mentioned multiple processing steps. These processing procedures need different equipment and need to be transferred between multiple procedures, which causes the production process to be more complicated, affects the overall efficiency of the copper bar sulfidation treatment, and the overall structure is more complex, the cost of use is higher, and at the same time, the copper bar is easy to accumulate or the surface of the copper bar is partially shielded during the sulfidation treatment process, which affects the uniformity and comprehensiveness of the copper bar surface treatment and affects the sulfidation treatment effect of the copper bar.

[0004] Therefore, it is necessary to provide a copper bar sulfidation production processing method to solve the above technical problems. SUMMARY

[0005] The purpose of the present application is to provide a copper bar sulfidation production processing method to solve the problems raised in the background art.

[0006] To achieve the above-mentioned purpose, the technical problems of the present application are solved by the following scheme: a copper bar sulfidation production processing method, the processing method is based on a processing box, a dynamic increasing assembly, a discharging assembly and a flow opening assembly, and the processing method comprises the following steps:

[0007] S1, multiple strip-shaped copper bars to be vulcanized are placed in multiple material placing boxes, acid washing liquid is input into the inside of the treatment box, the multiple material placing boxes are driven to rotate synchronously by the rotating circular plate, the acid washing liquid in the treatment box can be immersed into the copper bars in the material placing boxes through multiple through holes d on the material placing boxes, so that the copper bars in the material placing boxes are fully contacted with the acid washing liquid, and the copper bars in the multiple material placing boxes are sequentially immersed into the acid washing liquid to remove the oxides on the surface of the copper bars;

[0008] S2, after the acid washing treatment of the copper bars, the acid washing liquid in the treatment box is discharged, vulcanization solution is input into the inside of the treatment box, the copper bars in the multiple material placing boxes are sequentially immersed into the vulcanization solution by the rotating circular plate, and the copper bars are reacted at 50-80℃ for several minutes to several hours to form a dense vulcanization layer on the surface of the copper bars;

[0009] S3, after the vulcanization treatment of the copper bars is completed, the vulcanization solution in the inside of the treatment box is discharged, cleaning liquid is input into the inside of the treatment box, and the copper bars in the multiple material placing boxes are sequentially immersed into the cleaning liquid by the rotating circular plate, so that the copper bars are cleaned by the cleaning liquid;

[0010] S4, when the cleaning is completed, the cleaning liquid in the inside of the treatment box is discharged, the threaded rod is rotated by holding the rotating head plate, the convex plate is moved and adjusted by the threaded rod, so that the through hole a, the through hole b, the through hole c and the blowing hole are overlapped, the hot air flow is delivered to the inside of the cavity b by the air inlet pipe b, so that the hot air flow in the blowing seat b is sequentially blown out to the copper bars in the sequentially rotating and adjusting material placing boxes through the blowing hole, the through hole c, the through hole b and the through hole a, so that the copper bars are uniformly dried by the hot air;

[0011] S5, during the above treatment process, when the copper bars in the multiple material placing boxes are rotated around the center of the rotating circular plate driven by the rotating circular plate, the copper bars in the material placing boxes are repeatedly turned over, so that the two sides of the copper bars are alternately completely exposed and uniformly contacted with the liquid or hot air flow in the treatment box, meanwhile, the convex circular block b on the side surface of the circular plate and the convex circular block a on the elastic sheet plate are relatively rotated, so that the convex circular block a continuously knocks the circular plate by the cooperation of the elastic sheet plate, the convex circular block a and the convex circular block b, so that the copper bars are horizontally shaken while being continuously turned over in the material placing boxes, the copper bars have multiple direction movements, the overall movement degree of the copper bars is effectively increased, and the uniformity and sufficiency of the contact between the surface of the copper bars and the liquid or air flow are sufficiently improved;

[0012] S6, when the copper row drying treatment is completed, the different positions of the material box port are transferred to the through opening a by rotating the circular rotating plate, at this time, the circular rotating plate is paused by driving motor control, at this time, the other port of the material box is aligned with the discharge port, the air flow with certain air pressure is sent to the inside of the blowing flow seat a through the air inlet pipe a, and is uniformly and finely sprayed into the through opening a through a plurality of air blowing holes, so that the copper row in the material box is pushed to move close to the discharge port by the air flow with air pressure, so that the copper row in the material box is discharged by the discharge port, and the copper row is taken out.

[0013] As a further scheme of the application, the inner side wall of the processing box is fixed with an embedded plate, the inside of the processing box is provided with a rotatable adjusting circular rotating plate, the side surface of the circular rotating plate is fixed with a plurality of material boxes distributed in a ring shape, a plurality of through holes d are formed in the side surface of the material box, a dynamic increasing assembly is arranged between the embedded plate and the circular rotating plate, both ends of the material box are provided with openings, the top end of the processing box is provided with a discharging assembly for assisting the discharge of the copper row in the material box, and the bottom of the processing box is provided with a flow opening assembly.

[0014] As a further scheme of the application, the dynamic increasing assembly comprises a convex circular block b fixed on the circular rotating plate close to the side surface of the embedded plate, a plurality of convex circular blocks b are arranged in a ring shape, a spring plate is fixed on the side surface of the embedded plate between the circular rotating plate and the embedded plate, and convex circular blocks a in sliding fit with the convex circular blocks b are fixed on the end of the spring plate.

[0015] As a further scheme of the application, a slot is formed in the center of the circular rotating plate, a shaft rod is slidably connected in the slot, a driving motor is fixed on the outer side wall of the processing box, one end of the shaft rod away from the circular rotating plate is rotatably connected with the embedded plate and fixed with the output end of the driving motor, a sliding groove is formed in the side surface of the shaft rod along the length direction of the shaft rod, and a guide limiting convex block is fixed in the slot in the center of the circular rotating plate and slidably fitted with the sliding groove.

[0016] As a further scheme of the application, an end head plate is fixed on the end of the shaft rod away from the embedded plate, and a spring is sleeved on the side surface of the shaft rod between the end head plate and the side surface of the circular rotating plate.

[0017] As a further scheme of the present application, the discharging assembly comprises a plurality of through holes a provided on the side surface of the circular rotating plate and corresponding to the plurality of material placing box ports, a blowing seat a fixed at the top end of the built-in plate between the circular rotating plate and the built-in plate, a cavity a provided in the blowing seat a, a plurality of air blowing holes provided on the side surface of the blowing seat a close to the circular rotating plate and equidistantly distributed, an air inlet pipe a fixed on the built-in plate and communicating with the cavity a, and a discharge port provided at the top end of the processing box and aligned with the blowing seat a.

[0018] As a further scheme of the present application, the discharge port is hingedly connected with a cover plate, a lifting rod is fixed on the outer side surface of the cover plate, and a top plate is detachably installed on the top end of the processing box by screws.

[0019] As a further scheme of the present application, the discharging assembly comprises a blowing seat b provided at the bottom of the processing box, a cavity b provided in the blowing seat b, an air inlet pipe b communicating with the cavity b, a plurality of air blowing holes equidistantly distributed and provided on the top surface of the blowing seat b, an inner connecting plate fixed on the inner side wall of the processing box and abutting against the top surface of the blowing seat b, a plurality of through holes c provided on the side surface of the inner connecting plate and corresponding to the air blowing holes, a movable adjusting plate provided on one side of the inner connecting plate and capable of moving to adjust and close the through holes c, a plurality of through holes a provided on the side surface of the movable adjusting plate and corresponding to the through holes c, a discharge pipe fixed at the bottom of the processing box and communicating with the inside of the processing box, the port of the discharge pipe being tangentially arranged on the top surface of the movable adjusting plate, and valves being installed on the discharge pipe and the feeding pipe.

[0020] As a further scheme of the present application, one end of the movable adjusting plate is fixed with a convex plate outside the processing box, a nut sleeve is fixed in the convex plate, a threaded rod is threadedly connected in the nut sleeve, one end of the threaded rod is rotationally connected with the side wall of the processing box, and a rotating head plate is fixed on the end of the threaded rod.

[0021] As a further scheme of the present application, a rubber pad is arranged between the movable adjusting plate and the inner connecting plate, the rubber pad is fixedly attached to the top surface of the inner connecting plate, and a plurality of through holes b corresponding to the through holes c are provided on the side surface of the rubber pad.

[0022] Compared with the prior art, the present application has the following beneficial effects:

[0023] 1. Through the rotating circular plate, the copper bars in the multiple material placing boxes are sequentially immersed in the liquid, and the hot air flow is blown out by the flow opening assembly arranged at the bottom of the treatment box to the copper bars in the material placing boxes, so that the copper bars are dried by the hot air, and the multiple processing steps of pickling, sulfuration, cleaning and drying of the copper bars are combined as one, greatly reducing the transfer between processes, effectively improving the overall efficiency of the sulfuration processing of the copper bars, and stabilizing the sulfuration processing quality;

[0024] 2. In each step of processing the copper bars, when the copper bars in the multiple material placing boxes are rotated around the center of the circular plate driven by the rotating circular plate, the copper bars in the material placing boxes repeatedly turn over, so that the two sides of the copper bars alternately and completely expose and uniformly contact with the liquid or hot air flow in the treatment box, thereby effectively improving the overall treatment of the copper bar surface and improving the processing effect, further improving the overall efficiency of the copper bar sulfuration processing, in the process, the circular plate is continuously knocked by the arranged motion increasing assembly, so that the copper bars in the material placing boxes continuously turn over while horizontally shaking, so that the copper bars have multiple direction movements, effectively increasing the overall movement degree of the copper bars, further improving the overall exposure of the copper bar surface, further reducing the reaction dead angle, making the sulfuration layer more evenly distributed, avoiding the phenomenon of local over-thickness or over-thin, and at the same time, it can also promote the rapid discharge of reaction by-products from the copper bars, preventing deposition from affecting the sulfuration quality;

[0025] 3. When the drying treatment of the copper bars is completed, the material placing boxes and the copper bars therein at different positions are transferred to the discharging assembly by the rotating circular plate, and the copper bars are blown out from the material placing boxes by the discharging assembly, assisting in taking out the copper bars, and the multiple copper bars are sequentially assisted to be taken out by the rotating circular plate and the discharging assembly, effectively improving the convenience of taking out the material. BRIEF DESCRIPTION OF DRAWINGS

[0026] The present application will be further described below in combination with the drawings and examples:

[0027] Figure 1 is the overall structure of the present application;

[0028] Figure 2 is the overall structure of the present application;

[0029] Figure 3 is the internal structure of the treatment box of the present application;

[0030] Figure 4 is the cross-sectional structure of the flow opening assembly of the present application;

[0031] Figure 5 is the overall cross-sectional structure of the present application Figure 1 ;

[0032] Figure 6 isFigure 5 A magnified view of the structure at point C in the middle;

[0033] Figure 7 It is a schematic diagram of the local structure of the actuating component of the present invention;

[0034] Figure 8 This is a schematic cross-sectional view of the actuating assembly of the present invention;

[0035] Figure 9 The overall cross-sectional structure of the present invention is schematically shown Figure 2 ;

[0036] Figure 10 for Figure 9 A magnified view of the structure at point B in the middle;

[0037] Figure 11 It is a schematic diagram of the partial structure of the discharge assembly of the present invention;

[0038] Figure 12 for Figure 11 A magnified view of the structure at center A;

[0039] Figure 13 This is a schematic diagram of the shaft rod, end plate and slide groove structure of the present invention;

[0040] Figure 14 It is a schematic diagram of the partial structure of the open flow component of the present invention.

[0041] In the accompanying drawings, the components represented by the reference numerals are as follows:

[0042] 1. Increased motion assembly; 101. Spring plate; 102. Convex block a; 103. Convex block b; 104. Shaft; 105. End plate; 106. Spring; 107. Slide; 108. Guide block; 2. Discharge assembly; 201. Blowing seat a; 202. Port a; 203. Cavity a; 204. Blowing hole; 205. Inlet pipe a; 206. Discharge port; 207. Cover plate; 208. Lifting rod; 3. Opening assembly; 301. Adjustment plate; 302. Port Hole a; 303, rubber pad; 304, through hole b; 305, internal plate; 306, through hole c; 307, blowing hole; 308, cavity b; 309, blowing seat b; 310, convex plate; 311, nut sleeve; 312, threaded rod; 313, rotary head plate; 314, air inlet pipe b; 4, processing box; 5, circular rotary plate; 6, drive motor; 7, discharge pipe; 8, feed pipe; 9, valve; 10, material box; 11, internal plate; 12, through hole d; 13, top plate. DETAILED DESCRIPTION

[0043] The present invention will be further described below with reference to the embodiments.

[0044] See also Figures 1-14The application provides a copper bar sulfuration processing method, which is based on a treatment box 4, a dynamic increasing assembly 1, a discharging assembly 2 and an open flow assembly 3, and comprises the following steps.

[0045] S1, a plurality of strip-shaped copper bars to be sulfuration treated are placed in a plurality of material placing boxes 10, acid washing liquid is input into the treatment box 4, the plurality of material placing boxes 10 are driven to rotate synchronously by the rotating circular rotating plate 5, the acid washing liquid in the treatment box 4 can be immersed into the copper bars in the material placing boxes 10 through a plurality of through holes d12 on the material placing boxes 10, so that the copper bars in the material placing boxes 10 are fully contacted with the acid washing liquid, and the copper bars in the plurality of material placing boxes 10 are sequentially immersed into the acid washing liquid to remove the oxides on the surfaces of the copper bars;

[0046] S2, after the acid washing treatment of the copper bars, the acid washing liquid in the treatment box 4 is discharged, sulfuration solution is input into the treatment box 4, the copper bars in the plurality of material placing boxes 10 are sequentially immersed into the sulfuration solution by the rotating circular rotating plate 5, and the copper bars are reacted at 50-80 DEG C for several minutes to several hours, so that a dense sulfuration layer is formed on the surfaces of the copper bars;

[0047] S3, after the sulfuration treatment of the copper bars is completed, the sulfuration solution in the treatment box 4 is discharged, cleaning liquid is input into the treatment box 4, the copper bars in the plurality of material placing boxes 10 are sequentially immersed into the cleaning liquid by the rotating circular rotating plate 5, and the copper bars are cleaned by the cleaning liquid;

[0048] S4, when the cleaning is completed, the cleaning liquid in the treatment box 4 is discharged, the threaded rod 312 drives the convex plate 310 to move and adjust by rotating the screw head plate 313 and rotating the threaded rod 312, so that the moving plate 301 moves and adjusts, the through hole a 302, the through hole b 304, the through hole c 306 and the blowing hole 307 are overlapped, the hot air flow is delivered into the cavity b 308 by the air inlet pipe b 314, so that the hot air flow in the blowing flow seat b 309 is sequentially blown out to the copper bars in the sequentially rotating and adjusting material placing boxes 10 through the blowing hole 307, the through hole c 306, the through hole b 304 and the through hole a 302, so that the copper bars are uniformly dried by the hot air;

[0049] S5、In the process of the above-mentioned processing steps, when the copper bars in the multiple material placing boxes 10 are driven to rotate around the center of the rotating circular plate 5 by the rotating circular plate 5, the copper bars in the material placing boxes 10 are repeatedly turned over, so that the two sides of the copper bars are alternately and completely exposed and uniformly contacted with the liquid or hot gas flow in the processing box 4, at the same time, the convex circular blocks b103 on the side of the rotating circular plate 5 and the convex circular blocks a102 on the elastic sheet plate 101 form relative rotation, so that the convex circular blocks a102 continuously and repeatedly knock the rotating circular plate 5 through the cooperation of the elastic sheet plate 101, the convex circular blocks a102 and the convex circular blocks b103, so that the copper bars in the material placing boxes 10 are continuously turned over and horizontally shaken, so that the copper bars have multiple direction movements, effectively increasing the overall movement degree of the copper bars, and fully improving the uniformity and sufficiency of the contact between the surface of the copper bars and the liquid or gas flow;

[0050] S6、When the copper bar drying process is completed, the ports of the material placing boxes 10 at different positions are transferred to the through port a202 by the rotating circular plate 5, at this time, the rotating circular plate 5 is controlled to stop rotating by the driving motor 6, at this time, the other port of the material placing box 10 is aligned with the discharge port 206, the gas flow with a certain air pressure is delivered to the inside of the blowing seat a201 through the air inlet pipe a205, and is uniformly and finely sprayed into the through port a202 through the multiple air blowing holes 204, so that the copper bars in the material placing box 10 are pushed to move close to the discharge port 206 by the gas flow with air pressure, so that the copper bars in the material placing box 10 are blown and discharged through the discharge port 206, assisting the taking out of the copper bars.

[0051] Further as Figure 2 , Figure 3 and Figure 4As shown, worth noting is that the inner side wall of the processing box 4 is fixed with an inner plate 11, the inner part of the processing box 4 is provided with a rotatable adjusting circular rotating plate 5, the side of the circular rotating plate 5 is fixed with a plurality of ring-distributed material placing boxes 10, the side of the material placing box 10 is provided with a plurality of through holes d12, the inner plate 11 and the circular rotating plate 5 are provided with a dynamic increasing assembly 1, both ends of the material placing box 10 are provided with openings, the top end of the processing box 4 is provided with a discharging assembly 2 for assisting the copper bar in the material placing box 10 to discharge, the bottom of the processing box 4 is provided with an open flow assembly 3, the outer side wall of the processing box 4 is fixed with a plurality of feeding pipes 8 located at the top end of the processing box 4 and communicating with the inside of the processing box 4, through which the pickling liquid, the vulcanization solution and the cleaning liquid can be respectively input into the processing box 4; when in use, a plurality of strip-shaped copper bars to be vulcanized are placed in the plurality of material placing boxes 10, the pickling liquid (dilute sulfuric acid or hydrochloric acid) is first input into the inside of the processing box 4 through the feeding pipe 8, the plurality of material placing boxes 10 are driven to rotate synchronously by the rotating circular rotating plate 5, the pickling liquid in the processing box 4 can be immersed into and contact the copper bar in the material placing box 10 through the plurality of through holes d12 on the material placing box 10, so that the copper bar in the material placing box 10 is fully contacted with the pickling liquid, the copper bar in the plurality of material placing boxes 10 is sequentially immersed into the pickling liquid, the oxide on the surface of the copper bar is removed, after the copper bar is pickled, the pickling liquid in the processing box 4 is discharged, the vulcanization solution (such as ammonium polysulfide, sodium sulfide solution) is input into the inside of the processing box 4, the copper bar in the plurality of material placing boxes 10 is sequentially immersed into the vulcanization solution by the rotating circular rotating plate 5, the copper bar surface is formed with a dense vulcanization layer after reacting for several minutes to several hours at 50-80℃, after the vulcanization of the copper bar is completed, the vulcanization solution in the processing box 4 is discharged, the cleaning liquid (such as water) is input into the inside of the processing box 4, the copper bar in the plurality of material placing boxes 10 is sequentially immersed into the cleaning liquid by the rotating circular rotating plate 5, the copper bar is cleaned by the cleaning liquid, when the cleaning is completed, the cleaning liquid in the processing box 4 is discharged, the open flow assembly 3 is opened, hot air flow is blown out to the copper bar in the material placing box 10 through the open flow assembly 3 arranged at the bottom of the processing box 4, so that the copper bar is dried by the hot air, in summary, the pickling, vulcanization, cleaning and drying of the copper bar are combined as a whole, the transfer between processes is greatly reduced, the overall efficiency of the vulcanization processing of the copper bar is effectively improved, and the vulcanization processing quality is stable;

[0052] In the process of each step of the copper bar treatment, the copper bars in the multiple material placing boxes 10 are driven to rotate around the center of the rotating circular plate 5 by the rotating circular plate 5, so that the copper bars in the material placing boxes 10 repeatedly turn over, thereby making the two sides of the copper bars alternately and completely exposed and uniformly contacted with the liquid or hot gas flow in the treatment box 4, so as to effectively improve the overall surface treatment of the copper bars, improve the processing effect, further improve the overall efficiency of the copper bar vulcanization treatment, and in the process, the rotating circular plate 5 is continuously and repeatedly knocked by the set increasing motion assembly 1, so that the copper bars in the material placing boxes 10 continuously turn over while horizontally shaking, so that the copper bars have multiple direction movements, effectively increase the overall movement degree of the copper bars, further improve the overall exposure of the copper bar surface, further reduce the reaction dead angle, make the vulcanization layer more evenly distributed, avoid local over-thickness or under-thickness phenomenon, and also promote the rapid discharge of reaction by-products from the copper bars, prevent deposition from affecting the vulcanization quality; after the copper bar drying treatment is completed, the copper bars in the material placing boxes 10 at different positions and the copper bars are transferred to the discharging assembly 2 by the rotating circular plate 5, and the copper bars are blown out from the material placing boxes 10 by the discharging assembly 2, which assists in taking out the copper bars. The rotating circular plate 5 and the discharging assembly 2 cooperate to form a plurality of copper bars which are taken out one by one, effectively improving the convenience of taking out the material.

[0053] Further as shown in Figure 6 、 Figure 7 and Figure 8 , it is worth noting that the increasing motion assembly 1 includes a convex circular block b103 fixed on the side of the circular plate 5 close to the inner plate 11, the convex circular block b103 is provided with multiple convex circular blocks b103 which are annularly distributed, the side of the inner plate 11 is fixed with a spring sheet 101 between the circular plate 5 and the inner plate 11, and the end of the spring sheet 101 is fixed with a convex circular block a102 which is in sliding cooperation with the convex circular block b103; when the circular plate 5 rotates relative to the inner plate 11, the convex circular block b103 on the side of the circular plate 5 and the convex circular block a102 on the spring sheet 101 form relative rotation, so that the convex circular block a102 continuously and repeatedly knocks the circular plate 5 through the cooperation of the spring sheet 101, the convex circular block a102 and the convex circular block b103, so that the copper bars in the material placing boxes 10 continuously turn over while horizontally shaking, so that the copper bars have multiple direction movements, effectively increase the overall movement degree of the copper bars, further improve the overall exposure of the copper bar surface, further reduce the reaction dead angle, make the vulcanization layer more evenly distributed, avoid local over-thickness or under-thickness phenomenon, and also promote the rapid discharge of reaction by-products from the copper bars, prevent deposition from affecting the vulcanization quality.

[0054] Further as shown inFigure 8 and Figure 13 As shown, it is worth noting that the center of the circular rotating plate 5 is provided with a notch and a shaft 104 is slidingly connected in the notch, a driving motor 6 is fixed on the outer side wall of the processing box 4, the end of the shaft 104 away from the circular rotating plate 5 is rotatably connected with the built-in plate 11 and is fixed with the output end of the driving motor 6, a sliding groove 107 is arranged on the side surface of the shaft 104 along the length direction of the shaft 104, a guide limiting protrusion 108 slidingly matched with the sliding groove 107 is fixed in the notch of the center of the circular rotating plate 5, an end plate 105 is fixed on the end of the shaft 104 away from the built-in plate 11, and a spring 106 is sleeved on the side surface of the shaft 104 and located between the end plate 105 and the side surface of the circular rotating plate 5; in specific work, the shaft 104 and the circular rotating plate 5 are integrally rotated in the same direction through the cooperation of the sliding groove 107 and the guide limiting protrusion 108, and the convex circular block a102 on the elastic sheet plate 101 knocks the circular rotating plate 5 to make it deviate from the adjustment position, and the spring 106 is arranged to pull the circular rotating plate 5 back to the original position, thereby increasing the overall movement effect of the copper bars in the placing box 10.

[0055] Further as shown in Figure 5 , Figure 6 and Figure 11 , it is worth noting that the discharging assembly 2 includes a through hole a202 provided on the side surface of the circular rotating plate 5, the through hole a202 is provided with a plurality of through holes a202 which are one-to-one corresponding to the ports of the plurality of placing boxes 10, a blow flow seat a201 is fixed at the top end of the built-in plate 11 and located between the circular rotating plate 5 and the built-in plate 11, a cavity a203 is formed in the blow flow seat a201, a plurality of blow holes 204 are formed in the side surface of the blow flow seat a201 and are in communication with the cavity a203, the blow holes 204 are equidistantly distributed, an air inlet pipe a205 is fixed on the built-in plate 11 and is in communication with the cavity a203, and a discharge port 206 is formed at the top end of the processing box 4 and is aligned with the blow flow seat a201; after the drying treatment of the copper bars is completed, the ports of the placing boxes 10 at different positions are transferred to the through hole a202 by the rotating circular rotating plate 5, at this time the circular rotating plate 5 is controlled to stop rotating by the driving motor 6, at this time the other port of the placing box 10 is aligned with the discharge port 206, the air inlet pipe a205 is connected with an air pump, the airflow with a certain air pressure is delivered to the inside of the blow flow seat a201 through the air inlet pipe a205, and is uniformly and finely sprayed into the through hole a202 through the plurality of blow holes 204, so that the copper bars in the placing box 10 are pushed to move close to the discharge port 206 by the airflow with air pressure, thereby the copper bars in the placing box 10 are blown out through the discharge port 206, and the copper bars are taken out, the rotating circular rotating plate 5 and the discharging assembly 2 are matched to form the copper bars to be taken out one by one, and the convenience of taking out the copper bars is effectively improved.

[0056] Further as shown inFigure 5 、 Figure 9 and Figure 10 As shown in the drawings, it is worth noting that the open-flow assembly 3 includes a blowing seat b309 arranged at the bottom of the processing box 4, the inside of the blowing seat b309 is provided with a cavity b308, the cavity b308 is communicated with an air inlet pipe b314, the top surface of the blowing seat b309 is provided with a plurality of blowing holes 307 distributed at equal intervals, the inner side wall of the processing box 4 is fixedly provided with an inner connecting plate 305 abutting against the top surface of the blowing seat b309, a plurality of through holes c306 corresponding to the blowing holes 307 are arranged on the side surface of the inner connecting plate 305, a movable adjusting plate 301 capable of moving adjustment and closing the through holes c306 is arranged on one side of the inner connecting plate 305, a plurality of through holes a302 corresponding to the through holes c306 are arranged on the side surface of the movable adjusting plate 301, the bottom of the processing box 4 is fixedly provided with a discharge pipe 7 communicated with the inside of the processing box 4, the port of the discharge pipe 7 is tangentially arranged on the top surface of the movable adjusting plate 301, and valves 9 are arranged on the discharge pipe 7 and the feeding pipe 8; when the copper bar is in a non-drying processing state, the through holes a302 and the blowing holes 307 are completely misaligned, so that the blowing holes 307 are covered and closed by the solid part of the movable adjusting plate 301, after the cleaning of the copper bar is completed, the valve on the discharge pipe 7 is opened, the cleaning liquid in the processing box 4 is discharged through the discharge pipe 7, the air inlet pipe b314 is connected with a hot air blower, the through holes a302, the through holes b304, the through holes c306 and the blowing holes 307 are overlapped by moving and adjusting the movable adjusting plate 301, the hot air flow is delivered to the inside of the cavity b308 by the air inlet pipe b314, so that the hot air flow in the blowing seat b309 is uniformly and finely blown out to the copper bar in the material box 10 rotating and adjusting in sequence through the blowing holes 307, the through holes c306, the through holes b304 and the through holes a302, so that the copper bar is uniformly dried by the hot air, and the combination of the pickling, sulfuration treatment, cleaning and drying of the copper bar is realized, the transfer between processes is greatly reduced, the overall efficiency of the sulfuration processing of the copper bar is effectively improved, the sulfuration treatment quality is stabilized, the flow diameter of the blowing holes 307 is adjusted by different degrees of misalignment of the through holes a302 and the blowing holes 307, the air flow rate can be adjusted, and it can be suitable for different copper bars and different drying needs.

[0057] Further as Figure 10 、 Figure 12 and Figure 14As shown, it is worth noting that one end of the adjusting plate 301 is fixed with a convex plate 310 outside the processing box 4, the convex plate 310 is fixed with a nut sleeve 311, the nut sleeve 311 is threadedly connected with a threaded rod 312, one end of the threaded rod 312 is rotatably connected with the side wall of the processing box 4, and the end of the threaded rod 312 is fixed with a rotating head plate 313; in particular, during operation, the nut sleeve 311 and the threaded rod 312 are matched to drive the convex plate 310 to move when the rotating head plate 313 is rotated, so that the adjusting plate 301 is adjusted, and the blowing hole 307 is closed and opened.

[0058] The scheme has the following working process: the plurality of to be vulcanized processing strip plate copper bar is placed in the inside of the plurality of material box 10, first to the inside of the processing box 4 input pickling solution, through the rotating round plate 5 drive the plurality of material box 10 synchronous rotation, the pickling solution in the processing box 4 can be immersed by the plurality of through hole d12 on the material box 10 and contact the copper bar in the material box 10, so that the copper bar in the material box 10 is fully contacted with the pickling solution, so that the copper bar in the plurality of material box 10 is immersed in the pickling solution in turn, remove the oxide on the surface of the copper bar, after the copper bar is pickled, the pickling solution in the processing box 4 is discharged, the vulcanization solution is input to the inside of the processing box 4, through the rotating round plate 5 drive the copper bar in the plurality of material box 10 is immersed in the vulcanization solution in turn, under 50-80℃ for several minutes to several hours, so that the copper bar surface forms a dense sulfur layer, after the copper bar is vulcanized, the vulcanization solution in the processing box 4 is discharged again, the cleaning liquid is input to the inside of the processing box 4, through the rotating round plate 5 drive the copper bar in the plurality of material box 10 is immersed in the cleaning liquid in turn, the copper bar is cleaned by the cleaning liquid, when the cleaning is completed, the cleaning liquid in the processing box 4 is discharged, the knob plate 313 is held and rotated, the lug plate 310 is moved and adjusted by the threaded rod 312, so that the moving plate 301 is moved and adjusted, so that the through hole a 302, the through hole b 304, the through hole c 306 and the blowing hole 307 are overlapped, the hot gas flow is delivered to the inside of the cavity b 308 by the inlet pipe b 314, so that the hot air flow in the blowing flow seat b 309 is uniformly refined and blown out to the copper bar in the material box 10 which is rotated and adjusted in turn, so that the copper bar is uniformly dried by the hot air; in the above plurality of processing steps, when the copper bar in the plurality of material box 10 is rotated around the center of the rotating round plate 5 driven by the rotating round plate 5, the copper bar in the material box 10 is repeatedly turned over, so that the two sides of the copper bar are alternately and completely exposed and uniformly contacted with the liquid or hot gas flow in the processing box 4, at the same time, the convex circular block b 103 on the side of the round plate 5 and the convex circular block a 102 on the elastic sheet plate 101 form relative rotation, so that the convex circular block a 102 continuously and continuously knocks the round plate 5 by the cooperation of the elastic sheet plate 101, the convex circular block a 102 and the convex circular block b 103, so that the copper bar is horizontally shaken while being continuously turned over in the material box 10, so that the copper bar has multiple direction movement, effectively increases the overall movement degree of the copper bar, and sufficiently improves the uniformity and sufficiency of the contact between the surface of the copper bar and the liquid or gas flow.When the copper row drying treatment is completed, the different positions of the material box 10 port are transferred to the through port a202 by rotating the circular rotating plate 5. At this time, the circular rotating plate 5 is controlled to stop rotating by the driving motor 6. At this time, the other port of the material box 10 is aligned with the discharge port 206. The air flow with a certain air pressure is delivered to the inside of the blowing flow seat a201 through the air inlet pipe a205, and is uniformly and finely sprayed into the through port a202 through the plurality of blowing holes 204. Thus, the copper row in the material box 10 is pushed to move close to the discharge port 206 by the air flow with air pressure, so as to blow and discharge the copper row in the material box 10 through the discharge port 206, thereby assisting in taking out the copper row.

[0059] Further as shown in Figure 2 and Figure 11 It is worth noting that the hinge cover plate 207 is hinged in the discharge port 206. The outer side of the cover plate 207 is fixed with a lifting rod 208. The top end of the treatment box 4 is detachably installed with a top plate 13 through screws. The discharge port 206 is covered by the cover plate 207. The top end of the treatment box 4 is removed by the top plate 13, so as to facilitate the maintenance and repair of the inside of the treatment box 4.

[0060] Further as shown in Figure 4 and Figure 10 It is worth noting that the hinge cover plate 207 is hinged in the discharge port 206. The outer side of the cover plate 207 is fixed with a lifting rod 208. The top end of the treatment box 4 is detachably installed with a top plate 13 through screws. The discharge port 206 is covered by the cover plate 207. The top end of the treatment box 4 is removed by the top plate 13, so as to facilitate the maintenance and repair of the inside of the treatment box 4.

[0061] In summary: the acid pickling, sulfidation treatment, cleaning and drying of copper bars are combined into one, greatly reducing the transfer between processes, effectively improving the overall efficiency of copper bar sulfidation processing, and stabilizing the sulfidation treatment quality; during each step of the copper bar processing, the copper bars in the multiple material placing boxes 10 are continuously turned over by the rotating circular plate 5, which drives the copper bars in the multiple material placing boxes 10 to rotate around the center of the circular plate 5, so that the copper bars in the material placing boxes 10 are constantly turned over, and the two sides of the copper bars are alternately and completely exposed and evenly contacted with the liquid or hot gas flow in the processing box 4, thereby effectively improving the overall treatment of the copper bar surface, improving the processing effect, and further improving the overall efficiency of the copper bar sulfidation treatment. In this process, the circular plate 5 is continuously knocked by the set of motion increasing components 1, so that the copper bars in the material placing boxes 10 are constantly turned over while horizontally shaking, so that the copper bars have multiple directional movements, effectively increasing the overall movement of the copper bars, further improving the overall exposure of the copper bar surface, further reducing the reaction dead angle, making the sulfidation layer more evenly distributed, avoiding the phenomenon of local over-thickness or under-thickness, and also promoting the rapid discharge of reaction by-products from the copper bars, preventing deposition from affecting the quality of sulfidation; when the copper bar drying process is completed, the rotating circular plate 5 drives the material placing boxes 10 and the copper bars therein at different positions to be transferred to the discharging assembly 2, and the copper bars are blown out from the material placing boxes 10 by the discharging assembly 2, which assists in taking out the copper bars. The rotating circular plate 5 and the discharging assembly 2 cooperate to form a plurality of copper bars that are taken out one by one.

[0062] The drive motor 6, air pump and hot air fan can be purchased on the market, and the drive motor 6, air pump and hot air fan are provided with a power supply, which belongs to mature technology in the art and has been fully disclosed, so the specification will not be repeated.

Claims

1. A method for processing copper bars in a sulphidic production process, characterized in that, The processing method is based on a processing box (4), a dynamic increasing assembly (1), a discharging assembly (2) and a flow opening assembly (3), and comprises the following steps: S1, a plurality of strip-shaped copper bars to be vulcanized are placed in a plurality of material placing boxes (10), acid washing liquid is input into the processing box (4), the plurality of material placing boxes (10) are driven to rotate synchronously by the rotating circular rotating plate (5), the acid washing liquid in the processing box (4) can be immersed into the copper bars in the material placing boxes (10) through a plurality of through holes d (12) on the material placing boxes (10), so that the copper bars in the material placing boxes (10) are fully contacted with the acid washing liquid, and the copper bars in the plurality of material placing boxes (10) are sequentially immersed into the acid washing liquid to remove the oxides on the surface of the copper bars; S2, after the acid washing treatment of the copper bars, the acid washing liquid in the processing box (4) is discharged, vulcanization solution is input into the processing box (4), the copper bars in the plurality of material placing boxes (10) are sequentially immersed into the vulcanization solution by the rotating circular rotating plate (5), and the copper bars are reacted at 50-80℃ for several minutes to several hours to form a dense vulcanization layer on the surface of the copper bars; S3, after the vulcanization treatment of the copper bars is completed, the vulcanization solution in the processing box (4) is discharged, cleaning liquid is input into the processing box (4), and the copper bars in the plurality of material placing boxes (10) are sequentially immersed into the cleaning liquid by the rotating circular rotating plate (5), so that the copper bars are cleaned by the cleaning liquid; S4, when the cleaning is completed, the cleaning liquid in the processing box (4) is discharged, the threaded rod (312) drives the lug plate (310) to move and adjust by rotating the threaded rod (312), so that the moving plate (301) moves and adjusts, the through hole a (302), the through hole b (304), the through hole c (306) and the blowing hole (307) are overlapped, the hot air flow is delivered into the cavity b (308) by the air inlet pipe b (314), so that the hot air flow in the blowing flow seat b (309) is sequentially blown out to the copper bars in the sequentially rotating and adjusting material placing boxes (10) through the blowing hole (307), the through hole c (306), the through hole b (304) and the through hole a (302), so that the copper bars are uniformly dried by the hot air. S5、in the above-mentioned processing steps, through the rotating circular plate (5) drive multiple copper row in the material box (10) around the center of the circular plate (5) rotation, so that the copper row in the material box (10) repeatedly turn over, so that the copper row of both sides of the side surface constantly alternating completely exposed and with the liquid or hot gas flow in the processing box (4) uniform contact, at the same time, the convex block b (103) on the side of the circular plate (5) and the convex block a (102) on the elastic sheet plate (101) form relative rotation, so that the convex block a (102) on the circular plate (5) through the elastic sheet plate (101), the convex block a (102) and the convex block b (103) cooperation continuously knock, so that the copper row in the material box (10) constantly turn over while horizontal shaking, so that the copper row has multiple direction movement, effectively increase the overall movement degree of copper row, improve the copper row surface and liquid or gas flow contact uniformity and fullness; S6、when the copper row drying treatment is completed, through the rotating circular plate (5) drive different position material box (10) port transfer to the mouth a (202), at this time, through the drive motor (6) control circular plate (5) pause rotation, at this time, the other port of the material box (10) and the exhaust port (206) relative, through the air inlet pipe a (205) to the inside of the blowing flow seat a (201) with a certain air pressure flow, and through a plurality of air blowing hole (204) uniform and refined to the mouth a (202) inside, so that the air flow with air pressure push the copper row in the material box (10) move close to the exhaust port (206), so that the copper row in the material box (10) through the exhaust port (206) blow out, auxiliary take out the copper row.

2. The method of claim 1, wherein the copper busbar is sulfurized. The inner side wall of the processing box (4) is fixed with an embedded plate (11), the inside of the processing box (4) is provided with a rotatable adjusting circular plate (5), the side surface of the circular plate (5) is fixed with a plurality of ring-shaped material boxes (10), the side surface of the material box (10) is provided with a through hole d (12), the embedded plate (11) and the circular plate (5) are provided with a motion increasing assembly (1), the top end of the processing box (4) is provided with a discharging assembly (2) for assisting the copper row in the material box (10) to be discharged, and the bottom of the processing box (4) is provided with a flow opening assembly (3).

3. The method of claim 2, wherein the copper busbar is sulfurized by the method of claim 1. The motion increasing assembly (1) comprises: a plurality of convex blocks b (103) fixed on the side surface of the circular plate (5); an elastic sheet plate (101) fixed on the side surface of the embedded plate (11); a convex block a (102) fixed on the end of the elastic sheet plate (101) and in sliding fit with the convex block b (103).

4. The method of claim 3, wherein the copper busbar is sulfurized by the process of claim 1 or 2. The motion increasing assembly (1) further comprises: a shaft (104) slidingly inserted into the center of the circular plate (5); a sliding groove (107) formed on the side surface of the shaft (104); a guide limiting convex block (108) fixed on the center of the circular plate (5) and in sliding fit with the sliding groove (107).

5. The method of claim 4, wherein the copper busbar is sulfurized by the process of claim 1. The motion increasing assembly (1) further comprises: an end plate (105) fixed on the end of the shaft (104) away from the embedded plate (11). A spring (106) is sleeved on the side of the shaft (104) and located between the end plate (105) and the side of the rotary plate (5).

6. The method of processing copper busbars according to claim 3, characterized in that, The discharging assembly (2) comprises: A through hole a (202) is arranged on the side of the rotary plate (5) and communicates with the port of the material box (10); A blowing seat a (201) is fixed to the top end of the inner plate (11) and located on one side of the through hole a (202); A cavity a (203) is arranged in the blowing seat a (201); A plurality of blowing holes (204) are arranged on the side of the blowing seat a (201) and communicate with the cavity a (203); An air inlet pipe a (205) communicates with the cavity a (203); An outlet (206) is arranged at the top end of the treatment box (4) and is arranged in alignment with the blowing seat a (201).

7. The method of claim 6, wherein the copper busbar is sulfurized by the process of claim 1. The discharging assembly (2) further comprises: A cover plate (207) is hinged in the outlet (206); A top plate (13) is installed at the top opening of the treatment box (4).

8. The method of claim 2, wherein the copper busbar is sulfurized by the process of claim 1. The flow opening assembly (3) comprises: A blowing seat b (309) is arranged at the bottom of the treatment box (4); A cavity b (308) is arranged in the blowing seat b (309); An air inlet pipe b (314) communicates with the cavity b (308); A plurality of blowing holes (307) are arranged on the top surface of the blowing seat b (309) and communicate with the cavity b (308); An inner connecting plate (305) is fixed to the inner side wall of the treatment box (4) and is attached to the top surface of the blowing seat b (309); A plurality of through holes c (306) are arranged on the side of the inner connecting plate (305) and correspond to the blowing holes (307); A shifting plate (301) is arranged on the side of the inner connecting plate (305) away from the blowing seat b (309); A plurality of through holes a (302) are arranged on the side of the shifting plate (301) and correspond to the through holes c (306).

9. The method of claim 8, wherein the copper busbar is sulfurized by the process of claim 1. The flow opening assembly (3) further comprises: A convex plate (310) is fixed to one end of the shifting plate (301); A nut sleeve (311) is fixed in the convex plate (310); A threaded rod (312) is threadedly connected with the nut sleeve (311), and one end of the threaded rod (312) is rotationally connected with the side wall of the treatment box (4).

10. The method of claim 9, wherein the copper busbar is sulfurized by the process of claim 9. The flow opening assembly (3) further comprises: A rubber pad (303) is arranged between the shifting plate (301) and the inner connecting plate (305); A plurality of through holes b (304) are arranged on the side of the rubber pad (303) and correspond to the through holes c (306).

Citation Information

Patent Citations

  • Plasma equipment and insulator

    CN207237659U

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    CN221376160U