JP2018066037A - Stacking method and stacking device for electrodeposition metal - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a stacking method and stacking device of electrodeposition metals that can stably stack electrodeposition metals stripped from a cathode plate in electrolytic refining when shipping, safekeeping, and so on.SOLUTION: Electrodeposition metals 13a and 13b that are electrodeposited on both sides of a cathode plate 11 are stripped by a stripping device 5 at the upper part thereof so as to be opened outward, and the stripped electrodeposition metals 13a and 13b are transported to a turning device 8 by a transportation conveyor 7. The turning device 8 turns 180° horizontally the every other or every two or more electrodeposition metals transported in pairs of two. The predetermined number of the electrodeposition metals 13a and 13b from the turning device 8 are stacked by a stacking device 10. A pile of the stacked electrodeposition metals is maintained stably without being inclined, in the uniform left and right heights, and without collapsing.SELECTED DRAWING: Figure 4

Description

  The present invention relates to an electrodeposited metal laminating method and laminating apparatus. More specifically, the electrodeposited metal electrodeposited on the cathode plate by electrolytic refining is peeled off, and a predetermined number of sheets are stably stacked. The present invention relates to an electrodeposited metal laminating method and laminating apparatus.

  In the electrolytic refining of metals by the permanent cathode method, for example, the electrolytic refining of copper, the copper anode is cast by casting crude copper with an anode casting machine, and the copper anode and stainless steel cathode plate are alternately immersed in the electrolytic cell. Electrical copper is produced by energization and electrodepositing copper on the cathode plate. Then, when copper is sufficiently electrodeposited on the cathode plate, the cathode plate is lifted from the electrolytic cell, and the electrodeposited electrolytic copper on both sides of the cathode plate is peeled off to make a product. This electrolytic copper is shipped to the user in a state where a predetermined number of sheets are stacked.

  The stripping of the electrolytic copper from the cathode plate is performed by creating a slight gap between the cathode plate and the electrolytic copper, and inserting a chisel into this gap. Stacked as one pile. For example, Patent Documents 1 and 2 disclose the removal of electrolytic copper from the cathode plate.

JP 2008-231501 A JP-A-2015-206101

  A certain number of electrolytic copper is stacked for shipping and storage, but the stripped electrical copper has a different thickness in the vertical direction, so the number of electrolytic copper is simply stacked in that state. There was a problem that the mountain would tilt if there were more. This point will be further described in detail. FIG. 7 is an explanatory view showing that a difference occurs in the thickness of electrolytic copper. The electrolytic bath 15 is filled with an electrolytic solution 16, in which a cathode plate 11 is disposed, and copper anodes 12a and 12b are disposed on both sides thereof. A plurality of cathode plates 11 and copper anodes 12a and 12b are alternately immersed in the electrolytic cell 15. It is desirable that the cathode plate 11 and the copper anodes 12a and 12b are originally subjected to electrolytic purification in a state where there is no deformation or curvature and the verticality is maintained. However, the copper anodes 12a and 12b are molded so as to be slightly inclined (here, the inclination of the copper anodes 12a and 12b is exaggerated for easy understanding of the situation). This is to prevent the occurrence of a short circuit caused by burrs generated when the copper anodes 12a and 12b are cast with a mold during energization. For this reason, the distance between the upper portion and the lower portion of the anodes 12a and 12b is different from that of the cathode plate 11, so that a difference in thickness occurs between the upper and lower portions of the electric copper 13a and 13b electrodeposited on the cathode plate 11. It will be.

  In this state, the electrolytic coppers 13a and 13b electrodeposited on the cathode plate 11 are peeled off so that the upper part is opened outward as shown in FIG. 8A, and these are shown in FIG. If they are loaded as they are, there will be a difference in thickness (= height) between both ends (left and right in FIG. 8B). In practice, as will be described later, the next stripped electrical copper 13a is stacked on the first stripped electrical copper 13b. When a large number of electrolytic coppers 13a and 13b are sequentially stacked, as shown in FIG. 8 (c), the difference in thickness between the left and right becomes large, making it difficult to stand up the mountain. For this reason, when the number of sheets increases, the risk of the mountain crushing increases, and in the unlikely event that the copper copper 13a, 13b is damaged, the copper copper 13a, 13b may be damaged. On the other hand, if the number of peeled electrolytic coppers 13a and 13b is reduced in order to prevent the mountain from collapsing, the efficiency of shipping and storage is reduced.

  Therefore, the present invention has been made in view of such a problem, and it is an electrodeposited metal laminate capable of stably laminating a plurality of electrodeposited metals separated from a cathode plate in electrolytic refining at the time of shipment or storage. It is an object to provide a method and a laminating apparatus.

  In order to solve the above-mentioned problem, the invention described in claim 1 is characterized in that the electrodeposited metal electrodeposited on both sides of the cathode plate is stripped off by electrolytic purification by a permanent cathode method, and a plurality of electrodeposited metals after stripping are removed. In the method and apparatus for laminating the electrodeposited metals to be laminated, the upper part of the electrodeposited metal deposited on both sides of the cathode plate is peeled off by the stripping device so as to open outward, and the two stripped electrodes are peeled off. It is a transport conveyor that transports the bottoms of the metal deposits facing each other, temporarily stops at the position where the electrodeposition metal for one sheet has been transported, and then removes the electrodeposit metal on one side that has been peeled off. A conveyor conveyer that conveys as a set of two sheets by stacking on the electrodeposited metal on one side previously stripped, and every other or multiple electrodeposited metals that are conveyed in pairs by the conveyer 18 ° and turning device for turning, characterized in that it comprises a stacking device, a successively predetermined number laminating two pair of electrodeposited metal conveyed through the turning device.

  In order to solve the above-mentioned problem, the present invention according to claim 2 is the electrodeposition metal laminating apparatus according to claim 1, wherein a set of two electrodeposition metals is positioned at a predetermined position on the conveyor. A claw portion is provided.

  In order to solve the above-mentioned problem, the present invention according to claim 3 is the electrodeposition metal laminating device according to claim 1 or 2, wherein the swiveling device swivels a set of two electrodeposition metals on the spot. Or it is characterized by making it turn, moving 1 pitch toward the advancing direction.

  In order to solve the above-mentioned problem, the present invention according to claim 4 is the electrodeposition metal laminating device according to claim 3, wherein the swivel device is moved to a position where the electrodeposition metal is not caught by the claw portion. , Turning.

  In order to solve the above-mentioned problem, the present invention according to claim 5 is the electrodeposition metal laminating device according to claim 3 or 4, wherein the swivel device is disposed adjacent to the conveyor and is freely controlled by electronic control. A multi-joint robot having a plurality of arms that are driven to each other, and a gripping mechanism that is attached to the tip of the arm and grips a set of two electrodeposited metals that are transported by a transport conveyor. Features.

  In order to solve the above-mentioned problems, the present invention according to claim 6 is characterized in that the electrodeposited metal electrodeposited on both sides of the cathode plate is stripped off by electrolytic purification by a permanent cathode method, and a plurality of electrodeposited metals after stripping are removed. In the electrodeposition metal laminating method, two electrodeposited metals that have been peeled off by peeling off the upper portions of the electrodeposited metal electroded on both sides of the cathode plate so as to open outward by the peeling device. A step of conveying by a conveyer in a state where the bottoms of the electrodes are opposed to each other, and once stopped at a position where the conveyer conveys one piece of electrodeposited metal, the electrodeposited metal on one side peeled off next Are stacked on the electrodeposited metal on one side that has been peeled off first, and a pair of two pieces are deposited by a swiveling device. It is characterized in that it comprises a step of 180 ° turn into every the steps of sequentially predetermined number laminating two pair of electrodeposited metal conveyed by conveyor through a pivoting device.

  In order to solve the above-mentioned problem, the present invention according to claim 7 is the method of laminating electrodeposited metals according to claim 6, wherein a set of two electrodeposited metals is swirled or advanced on the spot by a swiveling device. It is characterized by turning while moving one pitch toward the direction.

  According to the method and apparatus for laminating electrodeposited metals according to the present invention, there is an effect that a plurality of electrodeposited metals separated from the cathode plate in electrolytic purification can be stably stacked. Therefore, there is an effect that the electrodeposited metal can be efficiently shipped and stored.

It is a schematic diagram which shows the structure of the electrodeposition metal lamination | stacking apparatus based on this invention. (A)-(e) is explanatory drawing which shows the process of stripping electrolytic copper from a cathode plate. It is a perspective view which shows schematic structure of the conveyance conveyor of FIG. It is a perspective view which shows the structure of the turning apparatus of FIG. It is explanatory drawing which shows the turning process and lamination process of the electrodeposited metal in this invention. It is a flowchart which shows the lamination | stacking method of the electrodeposition metal which concerns on this invention. It is explanatory drawing which shows that a difference arises in the thickness of electrolytic copper. It is explanatory drawing which shows the loading of the electrolytic copper after the conventional peeling.

[Configuration of laminating equipment]
Hereinafter, an electrodeposition metal laminating method and laminating apparatus according to the present invention will be described in detail based on a preferred embodiment. First, the electrodeposition metal laminating apparatus according to the present invention will be described. FIG. 1 is a schematic view showing a configuration of a preferred embodiment of an electrodeposited metal laminating apparatus according to the present invention. An electrodeposited metal laminating apparatus (hereinafter referred to as “lamination apparatus”) 1 is schematically shown as a cathode in which electrolytic copper is electrodeposited on its surface sequentially from an electrolytic cell (not shown) (hereinafter referred to as “copper deposited cathode”). )) A loading section 2 in which a large number of 100, 100 are aligned in the thickness direction and conveyed by the conveying conveyor 20, and a copper cathode 100, 100 that is disposed in the middle of the loading section 2 and is being conveyed is a nozzle. The copper 3a and 13b are peeled from the cleaning device 3 for cleaning by discharging water from the water, the traverse conveyor 4 for moving the leading copper cathode 100 from the carry-in section 2 in the width direction, and the cathode plate 11 of the copper cathode 100. Stripping device 5 and cathode unloading section for transporting in recovery the cathode plate 11 to be collected sent from the traverse conveyor 4 after stripping of the electrical coppers 13a and 13b. And the transport conveyor 7 for transporting the electrical coppers 13a and 13b stripped by the stripping device 5 in the carry-out direction, and the electrical copper 13a and 13b stripped by the stripping device 5 and stacked in two layers in the horizontal direction. Swivel device 8 that rotates 180 °, press device 9 that corrugates electric copper 13a and 13b, and electric copper 13a and 13b that have been pressed are loaded in a specified number to create a load and further weigh And a stacking device 10 for carrying out labeling, binding, etc., and carrying out the product to a shipping or storage facility.

  The stripping device 5 is a device that receives the cathode plate 11 sent from the traverse conveyor 4 in units of one sheet, and strips the copper electrodes 13a and 13b from both sides of the cathode plate 11 to separate them. The stripping device 5 separates the electrical coppers 13a and 13b through the steps described below. Here, the peeling process will be described with reference to FIG. 2A to 2E are explanatory views showing a process of stripping the electrolytic copper 13a and 13b from the cathode plate 11. FIG. As shown in FIG. 2A, electrolytic copper 13a and 13b are electrodeposited on both surfaces of the cathode plate 11 with a predetermined thickness. From this state, as shown in FIG. 2B, the copper electrodes 100 a and 13 b are easily peeled off from the cathode plate 11 by bending the copper cathode 100 from both sides by the pressing members 17 and 17. Then, as shown in FIG. 2C, the electric coppers 13 a and 13 b are peeled from the cathode plate 11 by driving wedges 12 and 12 between the electric coppers 13 a and 13 b and the cathode 1. Further, as shown in FIG. 2 (d), by gripping predetermined portions above the electric coppers 13a and 13b with the grips 14 and 14, and opening the upper part outward with the bottom sides of the electric coppers 13a and 13b as fulcrums, Copper 13a and 13b are peeled into two sheets. Then, the stripped two pieces of electrolytic copper 13a and 13b are transported by the transport conveyor 7 with their bottoms facing each other.

  The conveyance conveyor 7 is a so-called endless belt conveyor that is rotated by a motor to convey the electric coppers 13a and 13b. As shown in FIG. 3 (a), the conveyor 7 is roughly composed of a pair of rails 70 and 70 on which both sides of the electric coppers 13a and 13b are placed, and a pair of rails 70 and 70 on the electric coppers 13a and 13b. A conveyor sheet 73 that is rotated and conveyed in a state where the conveyor sheet 73 is placed, and a road body 71 that guides the conveyor sheet 73 in the conveyance direction. Further, as shown in FIG. 3B, claw portions 72 are provided on both sides of the conveyor sheet 73 at predetermined intervals on the conveyor sheet 73 of the conveyor 7 and are placed on the rails 70 and 70. In addition, the electric coppers 13a and 13b function as stoppers positioned at predetermined positions.

  The swivel device 8 is a device that turns every other or every other piece of electrolytic copper 13a, 13b conveyed by the conveyer 7 in the horizontal direction by 180 °, that is, reverses the front and back in the conveying direction. . The swiveling device 8 is provided at the tip of the articulated robot 80 and the articulated robot 80 installed on the inverted U-shaped pedestal 81 installed on the transport conveyor 7 in the vicinity of the stripping device 5. A gripping mechanism 82 that horizontally rotates 180 ° in a state where the pair of electric coppers 13a and 13b is gripped (or gripped, sandwiched, or bitten) is configured. In this embodiment, the swivel device 8 is installed on the transport conveyor 7. However, the present invention is not limited to this, and may be installed beside the transport conveyor 7, for example.

  The articulated robot 80 is attached to the base 83 installed on the pedestal 81, the first arm 84 that is attached to the base 83 and that rotates horizontally with a built-in motor and speed reduction mechanism, and the first arm 84. For example, a second arm 85 swinging up and down, and a third arm 86 attached to the second arm 85 and swinging vertically, for example, and having a gripping mechanism 82 attached. Has been. Further, there is provided a control device composed of various sensors for detecting predetermined positions of the gripping mechanism 82, the electric coppers 13a and 13b and the transport conveyor 7, and a computer (not shown) for controlling the operation of the articulated robot 80 and the gripping mechanism 82. I have. The articulated robot 80 is provided with various types of axes such as 4, 5, and 6 axes, but any appropriate one can be used.

[Operation of electrodeposition metal laminating equipment]
Next, the operation of the above-described laminating apparatus 1 will be described. FIGS. 5A and 5B are process diagrams showing an embodiment of an electrodeposited metal laminating apparatus according to the present invention. First, the copper cathode 100 is sequentially carried into the carry-in section 2 while being suspended by an overhead crane or the like, further conveyed in the direction of the arrow shown in FIG. The The washed copper cathode 100 is further transported at a constant speed by the transport conveyor 20 and finally reaches the traverse conveyor 4. Then, the copper cathode 100 is transferred from the conveyor 20 to the traverse conveyor 4 in the order of arrival at the traverse conveyor 4 so that the copper copper cathode 100 is conveyed side by side in a direction parallel to the copper cathode surface. It is converted and conveyed to the stripping device 5 in this state.

  As shown in FIG. 5 (a), the copper cathode 100 that has arrived at the stripping device 5 is stripped by the stripping device 5 so that the electrical coppers 13 a and 13 b open upward from both sides of the cathode plate 11. Taken. The stripped electrical copper 13a, 13b is placed on the swivel device 8 side by the transport conveyor 7 for one sheet of electrical copper, that is, for one pitch (= feed width for one sheet of copper) with the bottoms facing each other. It is transported and temporarily stops. In this case, each of the electric coppers 13a and 13b is transported in a state where the thin side is the front and the thick side is the back. Then, the copper copper 13a and 13b are stripped in the same manner for the next copper cathode 100. As a result, the electrical copper 13a that has been stripped off on top of the electrical copper 13b that has been stripped one before overlaps to form a set of two sheets. Then, the sheet is again moved to the swivel device 8 side by one pitch by the transport conveyor 7 and is temporarily stopped. Further, the next step of stripping the copper electrodes 13a and 13b from the copper depositing cathode 100 is performed. Then, the stripped electrical copper 13a is superposed on the electrical copper 13b. In this way, the electrolytic coppers 13a and 13b are transported to the turning device 8 side as a pair. Therefore, as shown in FIG. 5 (a), the pair of electrolytic coppers 13a and 13b, which are a pair of two sheets, are in a state where the thin sides or the thick sides overlap each other. Then, the pair of electrolytic coppers 13a and 13b, which are a set of two sheets, are transported by the transport conveyor 7 to the turning device 8 in a pair of two sheets.

  On the other hand, the cathode plate 11 from which the electrical coppers 13a and 13b have been peeled off is sent to the cathode carry-out section 6 and further returned to the electrolytic cell 15 shown in FIG.

[Operation of swivel device 8]
When the set of two electrical coppers 13a and 13b is transported to the vicinity of the swivel device 8, the swivel device 8 does not perform the swivel operation for the first set of two electrical coppers 13a and 13b. It is conveyed as it is without changing its direction. Then, the swivel device 8 swivels the pair of two copper coppers 13a and 13b to be transported next in the 180 ° horizontal direction, and switches the front and rear with respect to the traveling direction. Specifically, a pair of electrolytic coppers 13a and 13b that have reached a predetermined position are gripped by the gripping mechanism 82 at a position P1 shown in FIG. It is rotated 180 ° horizontally while being moved in the transport direction and is placed again at position P 2 on the transport conveyor 7. By the operation of the swivel device 8, a set of two pieces of electrolytic copper 13 a and 13 b is sent to the conveyance direction side of the conveyance conveyor 7 by one pitch. Then, the next set of two electrical coppers 13a and 13b is not turned, and the next set of two pieces of electrical copper 13a and 13b is subjected to the above-described turning operation. In this way, the turning device 8 alternately performs non-turning and turning every two sets of the two sets of electrolytic copper 13a and 13b. It should be noted that the detection of whether or not a set of two electric coppers 13a and 13b has reached a predetermined position can be performed by detecting the electric copper 13a and 13b moving on the transport conveyor 7 with a sensor.

  In addition, as shown in FIG. 3 (b), the transport conveyor 7 is provided with claws 72 at a predetermined interval in order to position the transport position of the pair of two pieces of electrolytic copper 13a, 13b. Therefore, when the turning device 8 performs the turning operation, after the holding mechanism 82 holds the pair of electrolytic coppers 13a and 13b, the electrolytic copper 13a is moved to a position where the electrolytic coppers 13a and 13b do not interfere with the claw 72. , 13b is moved in the advancing direction, and then the turning operation is performed. Thereby, even if it is in the state where electric copper 13a and 13b is positioned by claw 72, electric copper 13a and 13b can be rotated 180 degrees without trouble.

  The robot 80 of the turning device 8 detects the relative position between the gripping mechanism 82 and the electric coppers 13a and 13b with a sensor (not shown) when performing the turning operation of the electric coppers 13a and 13b. The arms 84 to 86 are respectively controlled so that the turning operation is performed at an accurate position. In the operation of moving the electrolytic coppers 13a and 13b in the transport direction by one pitch, the contents to be processed in the process of moving each arm of the gripping mechanism 82 as indicated by the arrow A shown in FIG. 4 (non-turning or turning) And is placed at a predetermined position by various sensors (not shown). In this embodiment, the electrolytic coppers 13a and 13b are rotated in the horizontal direction by 180 ° while being moved in the transport direction by one pitch. However, the present invention is not limited to this, and 180 ° in place without being moved by one pitch. It can also be configured to perform an operation of turning and placing again at the original position.

  The electrolytic coppers 13a and 13b that have finished the turning process are transported to the subsequent stage by the transport conveyor 7 and reach the press device 9. The pressing device 9 performs corrugation on the arrived electric copper 13. Furthermore, the electrical coppers 13 a and 13 b that have been corrugated by the press device 9 reach the stacking device 10. In the stacking device 10, as shown in FIG. 5B, the pair of electrical coppers 13 c and 13 d that are transported next to the pair of electrical coppers 13 a and 13 b are different in thickness from each other. To load. Then, the total thickness of the four stacked sheets is equal on the left and right in units of two sheets. By repeating the stacking operation sequentially in this manner, the left and right heights of the copper piles after the predetermined number of sheets are stacked are equal as shown in FIG. When a predetermined number of sheets are loaded, they are weighed, labeled, bound, etc., and then stored in a predetermined place or shipped to a customer.

[Lamination method of electrodeposited metal]
Next, the method for laminating the electrodeposited metal according to the present invention will be described. FIG. 6 is a flowchart showing a method for laminating an electrodeposited metal according to the present invention. First, the electrolytic coppers 13a and 13b carried in from the carry-in part 2 and subjected to the cleaning process by the cleaning device 3 are sent to the stripping device 5 by the traverse conveyor 4 (step S1). As shown in FIG. 2, the stripping device 5 strips the electrical copper 13a, 13b from both sides of the cathode plate 11 so that the upper part is opened outward (step S2). The stripped electrical copper 13a, 13b is transported to the turning device 8 side by one pitch by the transport conveyor 7 and temporarily stops. Then, the electrical copper 13a that has been stripped next is stacked on the electrical copper 13b that has been stripped and stopped once before, so that a set of two sheets is obtained. And it moves to the turning apparatus 8 side by 1 pitch again by the conveyance conveyor 7, and stripping of the electrolytic copper 13a, 13b is repeated sequentially. Then, the pair of electrolytic coppers 13a and 13b is sent to the turning device 8 (step S3), and the cathode plate 11 after the electrolytic coppers 13a and 13b are peeled off is moved to the cathode carry-out section 6 by the traverse conveyor 4. Sent (step S4).

  It is determined whether or not the electric coppers 13a and 13b made into a set of two pieces are turned by 180 ° in the horizontal direction by the turning device 8 (step S5), and when the non-turning (= no turning) is determined (step S5). : "Non-turning"), the electric copper 13a, 13b on the conveyor 7 is moved (= passed) by one pitch without turning (step S6). On the other hand, when it is determined that the turn should be made (step S5: “turn”), the gripping mechanism 82 of the turning device 8 uses a pair of pieces of copper copper 13a and 13b. After moving the copper electrodes 13a and 13b to the position where they do not interfere with the claws 72, they are rotated 180 degrees horizontally and placed on the conveyor 7 again ( Step S7). In addition, turning or non-turning can be appropriately set so that turning is performed every other set or turns every other set. Moreover, it is also possible to configure such that a set of two copper electroplated coppers 13a and 13b that are swung are swung on the spot and placed at their original positions without being moved in the transport direction by one pitch.

  The electrolytic copper 13 a and 13 b that have passed through the swivel device 8 are then sent to the press device 9. In the pressing device 9, corrugation is performed on the arrived electrical coppers 13a and 13b (step S8). Further, the electrical coppers 13a and 13b from the pressing device 9 are sequentially stacked by the stacking device 10 as shown in FIGS. 5B and 5C (step S9). As shown in 5 (c), there is no difference in height between the left and right sides of the copper after laminating a predetermined number (34 or 36) of the coppers 13a and 13b. When a predetermined number of sheets are loaded, they are weighed, labeled, bound, etc., and then stored in a predetermined place or shipped to a customer. Thereby, even if a lot of electrolytic copper is laminated, the mountain does not tilt and collapse, and the work efficiency of shipping and storage can be improved. Moreover, it is possible to prevent the electrolytic copper from being damaged.

  As described above, the preferred embodiments have been described. However, the electrodeposition metal laminating method and the laminating apparatus according to the present invention are not limited to electrolytic copper, and can be applied to electrodeposited metals produced by electrolytic purification. Further, the present invention is effective not only for electrodeposited metal but also when it is necessary to load an object that causes a certain thickness difference at both ends.

DESCRIPTION OF SYMBOLS 1 Lamination | stacking apparatus 2 Carry-in part 3 Cleaning apparatus 4 Traverse conveyor 5 Stripping apparatus 6 Cathode carrying-out part 7 Conveyor 8 Turning apparatus 9 Press apparatus 10 Stacking apparatus 11 Cathode 12a, 12b Anode 13a-13d Copper 14 Grip 20 Conveyor 70 Rail 71 Road body 72 Claw part 73 Conveyor sheet 80 Articulated robot 81 Base 82 Grasping mechanism 83 Base 84 to 86 Arm 100 Coppered cathode P1, P2 position

Claims (7)

In the electrodeposition metal laminating apparatus that peels off the electrodeposited metal electrodeposited on both sides of the cathode plate by electrolytic refining by the permanent cathode method, and laminates a plurality of electrodeposited metals after peeling off,
The upper part of the electrodeposited metal electrodeposited on both sides of the cathode plate is peeled off by the peeling device so as to open outward, and the two stripped electrodeposited metal bottoms are transported in a state of facing each other. Of the electrodeposited metal that has been peeled off first, and then temporarily stopped at the position where the electrodeposited metal for one sheet has been conveyed. A transport conveyor that transports them as a pair by stacking on top,
A revolving device for revolving 180 ° of every other or every other electrodeposited metal conveyed in pairs by the conveyor
A stacking device for sequentially stacking a predetermined number of electrodeposited metals in a set of two sheets conveyed via the swivel device;
An electrodeposited metal laminating apparatus comprising: The electrodeposition metal laminating apparatus according to claim 1,
An electrodeposited metal laminating method and laminating apparatus characterized in that the transport conveyor includes a claw portion for positioning a set of two electrodeposited metals at a predetermined position. The electrodeposition metal laminating apparatus according to claim 1 or 2,
The swivel device is a layered apparatus for electrodeposited metals, wherein a set of two electrodeposited metals is swung on the spot or swung while being moved by one pitch toward the traveling direction. The electrodeposition metal laminating apparatus according to claim 3,
2. The electrodeposition metal laminating apparatus according to claim 1, wherein the swivel device is swung after the electrodeposition metal is moved to a position where the electrodeposition metal is not caught by the claw portion. The electrodeposition metal laminating apparatus according to claim 3 or 4,
The swivel device is disposed adjacent to the conveyor, and an articulated robot having a plurality of arms that are freely driven by electronic control;
A gripping mechanism that is attached to the tip of the arm and grips a set of two electrodeposited metals that are transported by the transport conveyor;
An electrodeposited metal laminating apparatus comprising: In the electrodeposition metal laminating method, the electrodeposited metal electrodeposited on both sides of the cathode plate by electrolytic refining by the permanent cathode method is peeled off, and a plurality of electrodeposited metals are laminated.
The upper part of the electrodeposited metal electrodeposited on both sides of the cathode plate is peeled off by the peeling device so as to open outward, and the two stripped electrodeposited metal bottoms are transported in a state of facing each other. Conveying by a conveyor;
The transport conveyor temporarily stops at the position where the electrodeposited metal for one sheet has been transported, and then the electrodeposited metal on one side that has been stripped off is stacked on the electrodeposited metal on the one side that has been stripped off first. Steps to make a set of 2 sheets,
Swiveling the electrodeposited metal conveyed by the conveying conveyor in a set of two sheets every other or plural by 180 ° with a swiveling device;
A step of sequentially laminating a predetermined number of a set of two electrodeposited metals conveyed by the conveyor via the swivel device;
A method for laminating electrodeposited metals, comprising: The method for laminating an electrodeposited metal according to claim 6.
A method for laminating electrodeposited metals, characterized in that a set of two electrodeposited metals is swung on the spot while being swung or moved by one pitch toward the traveling direction.

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