JP4964180B2 - Electrical copper sheet cutting system and method for cutting electrical copper sheet - Google Patents

Description

  The present invention relates to an electric copper plate cutting system and an electric copper plate cutting method, and more specifically, an electric copper plate for cutting, transferring and aligning an electrolytic copper plate manufactured by a permanent cathode method (hereinafter referred to as “PC method”). The present invention relates to a cutting system and a method for cutting an electric copper plate.

  A conventional electric copper plate is obtained by immersing a seed plate (cathode plate) made of a thin copper plate with a high purity of 0.6 to 0.8 mm and an anode plate called an anode formed by casting crude copper in an electrolytic solution. However, the so-called “seed plate method” in which copper is deposited on the surface of the seed plate by passing a direct current has been gradually changed to the PC method in recent years. The PC method is an electrolytic refining method using a SUS plate as a cathode plate, depositing electrolytic copper on both sides of the SUS plate, and peeling the electrolytic copper deposited on both sides of the SUS plate with a stripper. How to get. The SUS plate cathode plate has higher suspensibility than the cathode plate (thin copper plate) in the conventional seed plate method, can shorten the distance between the electrodes, and can increase the current density and improve the current efficiency. There is. In addition, the SUS plate is strong and can be used repeatedly, and there is an advantage that a high-quality electrolytic copper plate can be obtained, and the productivity is higher than the conventional seed plate method.

  The electrolytic copper produced by the PC method is collected by an electrolytic copper plate collection system. That is, after the electrolytic purification is completed and the electrolytic copper is deposited on both surfaces, the SUS plate is transferred by a conveyor, cleaned by a cleaning device, and then peeled off from the SUS plate by a stripping device. The peeled electrical copper plates are stacked by a predetermined number of sheets by a stacking apparatus and are carried out. On the other hand, the SUS plate is separately collected and used again for electrolytic purification. An electrolytic copper plate recovery system is disclosed in, for example, Japanese Patent Application Laid-Open No. 2005-240146.

JP-A-2005-240146

  The collected electric copper plate is cut into almost half size by a cutting device according to the application, and is laminated and transported / stored every predetermined number. The electrolytic copper plate manufactured by the conventional seed plate method has a thickness of about 20 mm, a width of about 960 mm, a height of about 1,020 mm, and a weight of about 160 kg, whereas it is manufactured by the PC method. The electrolytic copper plate has a thickness of about 10 mm, a width of about 960 mm, a height of about 1,051 mm, and a weight of about 78 kg. The thickness and weight of the electrolytic copper plate produced by the PC method is determined by the seed plate method. It is about half of the electric copper plate manufactured by Therefore, when cutting the copper sheet manufactured by the PC method using a conventional cutting device, the processing capacity is halved because the weight per sheet is about half that of the conventional method. There is.

Moreover, since the thickness of the electric copper plate by the PC method is about half that of the seed plate method, the mechanical strength of the obtained electric copper plate itself is weak. For this reason, there is a problem that the electrolytic copper plate is deformed when both ends of the electrolytic copper plate are gripped by the gripping device in order to be transferred to the cutting device.
In addition, since the thickness and weight of the electroplated copper plate by the PC method are about half that of the seed plate method, it is easy to cause misalignment when transferred to the conveyer and is not conveyed by the conveyer in an appropriate state. There was a problem.

  Furthermore, conventionally, the cut electrical copper plates are accommodated in a transport box as a set of two sheets and transported to a predetermined stacking position, and the electrical copper plates are sequentially stacked at a predetermined position by pushing them out of the transport box by a pusher. Since the thickness and weight of the electrolytic copper plate by the PC method are about half that of the seed plate method, misalignment is likely to occur during movement in the transport box, and the two copper sheets overlap in the transport process. There was a problem. Increasing the moving speed of the transport box in order to recover the processing capacity that was halved further increased the positional shift, which hindered the increase in processing capacity. In addition, there has been a problem in that when the pusher is pushed out, the momentum is excessive and the alignment is not correctly performed at the time of stacking, resulting in irregularities such as unevenness in the mountains.

  Therefore, the present invention solves the above-mentioned problems, and in an electrolytic copper plate cutting system that cuts an electrical copper plate with a cutting device and laminates the cut electrical copper plates by a predetermined number, the thickness and weight are about half that of the seed plate method. It is an object of the present invention to provide an electric copper plate cutting system and an electric copper plate cutting method that do not deform the electric copper plate even if the electric copper plate by the PC method having a weak mechanical strength is held by a holding device.

In addition, the present invention provides a cutting system and an electric copper plate that can be transported in an appropriate state without causing displacement even when an electrolytic copper plate whose thickness and weight are about half that of the seed plate method is transported by a transport box. It aims at providing the cutting method of a copper plate.
Furthermore, an object of the present invention is to provide an electric copper plate cutting system and an electric copper plate cutting method capable of laminating cut electric copper plates in a correct posture.

  In order to solve the above-mentioned problem, the present invention according to claim 1 is a cutting system for an electric copper plate in which an electric copper plate manufactured by a permanent cathode method is cut by a cutting device, and a predetermined number of the cut electric copper plates are stacked. A gripping device that sandwiches both side ends of the electric copper plate and supplies the same to the cutting device, and includes a holding portion provided with a holding member that elastically holds the electrolytic copper plate while preventing deformation of the electric copper plate And a transport box that collectively accommodates and transports the cut copper sheets transported by the transport conveyor, and presses each copper sheet to prevent positional displacement of each copper sheet during transport. A height for adjusting the height position of a pedestal for stacking a plurality of electrolytic copper plates taken out from the conveyance box and a conveyance box having a holding mechanism for holding. A height adjusting device for detecting the height position of the uppermost copper sheets to be stacked one after another, and thereby raising and lowering the pedestal so that the copper sheets are stacked at a predetermined height position. A position adjusting device is provided.

  In order to solve the above-mentioned problem, the present invention described in claim 2 is the electric copper plate cutting system according to claim 1, wherein the electric copper plate is transferred when the electric copper plate after cutting is transferred onto the transfer conveyor. A guide plate for guiding the electrolytic copper plate is provided so as to be conveyed on the conveyor in an appropriate position state.

  In order to solve the above-mentioned problem, the present invention according to claim 3 is the electrical copper plate cutting system according to claim 1, wherein the transport box is disposed at both left and right ends for supporting and sliding the electrical copper plate. A holding device including a pair of rails and a roller that slidably presses at least one side of both side edges of the electric copper plate disposed on the rail from the upper side, the roller between the rollers The holding | maintenance apparatus which prevents the position shift of the electrical copper plate at the time of transfer by pressing the inserted electrical copper plate from the upper side is characterized by the above-mentioned.

  In order to solve the above-mentioned problem, the present invention according to claim 4 is the electrical copper sheet cutting system according to claim 1, wherein the height position adjusting device is a height of the uppermost copper sheet stacked on the pedestal. The height of the pedestal is adjusted by detecting the position with a sensor.

  In order to solve the above-mentioned problem, the present invention according to claim 5 is the electrical copper sheet cutting system according to claim 1, wherein the copper sheet is transported while being accommodated in a transport box. The pusher for taking out from the transport box by bringing it into contact with the top copper plate, and the plurality of copper plates taken out from the transport box were correctly aligned to the uppermost position of the copper plate laminated on the pedestal, respectively. An alignment guide for stacking in a state is provided.

  In order to solve the above-mentioned problem, the present invention according to claim 6 is the electrical copper sheet cutting system according to claim 5, wherein the alignment guide has a first alignment having an arcuate shape with a surface protruding in an arc shape. A second alignment plate having a substantially rhombic cross section disposed between the plate and the first alignment plate and the pusher, and a plurality of copper electroplated plates conveyed by the conveyor are arranged on the first alignment plate and the first alignment plate. The electrolytic copper plate is guided by being dropped between the second alignment plate and between the second alignment plate and the pusher, and stacked in a properly aligned state on the stacking position on the pedestal.

  In order to solve the above-mentioned problem, the present invention according to claim 7 is a method for cutting an electric copper plate in which an electric copper plate manufactured by a permanent cathode method is cut by a cutting device, and a predetermined number of the cut electric copper plates are laminated. , A step of holding the both ends of the electric copper plate by a gripping device provided with a holding member for preventing deformation of the electric copper plate in the holding portion and supplying it to the cutting device, and a step of cutting the electric copper plate by the cutting device And a step of transferring the cut copper electroplated copper plate to the transport conveyor via the guide plate so as to be transported in a proper position on the transported conveyor carrying the cut copper electroplated plate. From the transport box, the process of transporting while holding and holding each copper plate by the holding mechanism in order to prevent the positional displacement of each copper plate during transport, Height position adjustment that detects the height position of the uppermost copper sheet stacked on the pedestal so that the copper sheet is stacked at a predetermined height by moving the pedestal up and down It is characterized by comprising a process.

  In order to solve the above-mentioned problem, the present invention according to claim 8 is the method of cutting an electric copper plate according to claim 7, wherein the pair of rails are arranged at the left and right ends for supporting and sliding the electric copper plate. And the upper part of the electric copper plate inserted between the roller and the rail by a holding device provided with a pressing roller that slidably presses at least one of the side edges of the electric copper plate arranged on the rail from the upper side. It is characterized in that the displacement of the electric copper plate at the time of transfer is prevented by pressing from the side.

  In order to solve the above-mentioned problem, the present invention according to claim 9 is the method of cutting an electrolytic copper plate according to claim 7, wherein a plurality of electrolytic copper plates are conveyed while being accommodated in a conveyance box. Each of the copper sheets is laminated on the pedestal by guiding the plurality of copper sheets taken out from the transport box by an alignment guide, and a step of taking out the first copper sheet from the transport box by contacting the pusher. It is characterized by including the process of laminating | stacking in the state correctly aligned to the position of the uppermost stage of an electrical copper plate.

  According to the electric copper plate cutting system and the method for cutting an electric copper plate according to the present invention, the holding member for elastically holding the electric copper plate is disposed in the holding portion of the gripping device that holds the both side ends of the electric copper plate and supplies them to the cutting device. Therefore, there is an effect that the deformation of the electrolytic copper plate at the time of clamping is reduced and the alignment at the time of loading after cutting is greatly improved. This has the effect that the carrying-in and carrying-out at the time of shipment become easy.

  Further, according to the electric copper plate cutting system and the electric copper plate cutting method according to the present invention, since the holding mechanism that presses and holds the electric copper plate is provided in the transport box, a plurality of electric wires after cutting accommodated in the transport box are provided. There is an effect that the displacement of the copper plate is prevented, and the electric copper plates are prevented from overlapping each other during conveyance. Therefore, even if the conveyance speed of the conveyance box is increased, there is an effect that the electrolytic copper plate can be accurately stacked.

  Furthermore, according to the electric copper plate cutting system and the electric copper plate cutting method according to the present invention, the height position adjusting device for adjusting the height position of the pedestal for stacking the electric copper plates is provided, Since the pedestal is moved up and down so that the height position of the copper plate is always constant, there is an effect that the electric copper plate can be laminated in a neatly aligned state without causing positional displacement.

  Further, according to the electric copper plate cutting system and the electric copper plate cutting method according to the present invention, since the alignment guide for stacking in the state of being correctly aligned to the uppermost position of the electric copper plate stacked on the pedestal is provided, There is an effect that it is possible to prevent misalignment when laminating copper plates and to laminate them in a neatly aligned state.

  DESCRIPTION OF EMBODIMENTS Hereinafter, an electric copper plate cutting system and an electric copper plate cutting method according to the present invention will be described in detail with reference to the drawings. FIG. 1 is a side view showing an overall configuration of an embodiment of a cutting system for an electrolytic copper plate according to the present invention.

  First, an outline of the illustrated electric copper sheet cutting system 10 will be described. The electric copper plate cutting system 10 is cut into a gripping device 20 that sandwiches and transfers the electric copper plate 1, a cutting device 30 that cuts the electric copper plate 1, and a conveyor 31 that conveys the electric copper plate 1a after cutting. A transport box 40 that accommodates and transports the electrical copper plate 1a and a pedestal 50 for laminating the cut electrical copper plate 1a are provided.

  The electric copper plate 1 manufactured by the PC method is peeled off from the SUS plate by an electric copper plate recovery system (not shown), and is transported to the electric copper plate cutting system 10 by the transfer conveyor 2 in a state where a predetermined number of layers are stacked. The electrolytic copper plate 1 set at a predetermined position is suspended one by one by the suction conveyance device 3 and transferred onto the conveyor 21. The gripping device 20 is movable on the conveyor 21, and the gripping device 20 is positioned in advance on the side of the laminated copper copper plate 1 (right side in FIG. 1), and the suction conveyance device 3 holding the copper copper plate 1. Passes over the gripping device 20 and the electrolytic copper plate 1 is placed on the left side of the gripping device 20 in FIG. Then, the gripping device 20 feeds the electrolytic copper plate 1 to the cutting device 30 while sandwiching both side ends of the electrolytic copper plate 1 placed on the conveyor 21.

  The electric copper plate 1 supplied to the cutting device 30 is cut into two equal parts. Each cut electric copper plate 1a is further transported to the transport box 40 by the transport conveyor 31, and is housed therein as a set of two sheets. The transport box 40 that houses the pair of cut electrical copper plates 1a moves along the beam 40a to the stacking position. A pusher 49 is arranged on the traveling direction side of the transport box 40, and the pusher 49 is in contact with the top electric copper plate 1 a accommodated in the transport box 40, but has a structure that does not hinder the movement of the transport box 40. Therefore, the electrical copper plate 1a falls as it is pushed out of the transport box 40, and the electrical copper plate 1a is laminated at that position. A pedestal 50 that can be moved up and down by a height position adjusting device is disposed at the stacking position, and the height adjustment is performed so that the copper sheets 1a that are dropped and stacked one after another are always at the same height position. Then, when a predetermined number of electrolytic copper plates 1a are stacked, the mountain is transferred to a storage place by the conveyor 61.

  Now, the gripping device 20 is a device for sandwiching both side ends of the electric copper plate 1 and supplying the electric copper plate 1 to the cutting device 30. As shown in FIG. And a pair of left and right hydraulic cylinders 25 and 25 for operating each of the sandwiching portions 22 and 22, respectively. Thus, the hydraulic cylinders 25 and 25 are operated to change the distance between the both sandwiching portions 22 and 22 so as to sandwich and release the both end portions of the electrolytic copper plate 1. A holding member 23 that is elastically held to prevent deformation of the electrolytic copper plate 1 at the time of clamping is disposed on the side of the clamping unit 22 that contacts the side end of the electrolytic copper plate 1. Since the sandwiching portion 22 is designed to sandwich the vicinity of about 1/4 of the length (height) direction of the electrolytic copper plate 1, the entire electrical copper plate 1 cannot be moved unless it is sandwiched with a certain amount of force. Since copper is a soft metal, it will be easily deformed if it is sandwiched with too much force. For this reason, the holding member 23 is disposed in a portion in direct contact with the electric copper plate 1 to elastically hold the electric copper plate 1, thereby preventing deformation of the electric copper plate 1. Examples of the material of the holding member 23 include a rubber material having cushioning properties and a hard synthetic resin.

  The electric copper plate 1 supplied to the cutting device 30 is cut in about half in the height (length) direction. Therefore, the cut electric copper plate 1a has a width of about 960 mm, a height (length) of about 525 mm, and a weight of about 39 kg. The configuration of the cutting device 30 is almost the same as that of the conventional one, and a detailed description thereof is omitted. Further, in the present embodiment, the electric copper plate 1 is cut in half, but the invention is not limited to this, and it is possible to cut into two or more such as three or four.

  The electric copper plate 1a cut by the cutting device 30 is conveyed to the next process by the conveyor 31. When the electric copper plate 1a after cutting is transferred onto the conveyor 31, the cut copper copper plate 1a is conveyed. A guide plate 26 is provided for guiding the copper sheet 1a so as to be conveyed on the conveyor 31 in a proper position. As shown in FIG. 2B, the guide plate 26 is formed by left and right guide plates 27a and 27b arranged on both outer sides of the conveyor 31 and along the traveling direction thereof. The opening lengths on the upper side of the left and right guide plates 27a, 27b are formed so as to expand larger than the width of the cut electrical copper plate 1a, while the lower side where the electrical copper plate 1a is discharged is formed. The opening length is narrower than the opening length on the upper side and slightly larger than the width of the electric copper plate 1a. The guide plate 26 is positioned on the upper side of the conveyor 31 so that the position of the guide plate 26 is adjusted so as to guide the electrolytic copper plate 1 so as to be conveyed on the conveyor 31 in an appropriate position. As a result, when the cut electrical copper plate 1a is introduced from the cutting device 30 to the guide plate 26, the electrical copper plate 1a is guided by the left and right guide plates 27a and 27b so as to be transported in an appropriate position state. 31 is mounted.

  The copper electroplated plates 1a cut in half by the cutting device 30 are each transported by a transport conveyor 31 and accommodated in a transport box 40 that is suspended and arranged so as to be movable along the beam 40a in pairs. Is done. The electrical copper plate 1a is preferably accommodated in the transport box 40 by accommodating each electrical copper plate 1a obtained by cutting one electrical copper plate 1 into a plurality of sets. As shown in FIG. 3, the transport box 40 is disposed in a substantially U-shaped main body 41 that is open on the lower side, and a mounting portion 44 that is formed in a substantially L shape near both left and right ends of the main body 41. The rail 42 and the roller member 43 arranged so as to be positioned above the rail 42 are provided. The main body 41 is slidably attached to the beam 40a by a support member 41a provided on the upper portion of the main body 41. Further, the roller member 43 on one side of the left and right roller members 43 (right side in FIG. 3 in this embodiment) can be moved up and down by an air cylinder 45, and the roller member 43 on the other side (this embodiment). The left side in FIG. 3 is configured to serve as a guide for guiding the electric copper plate 1a, and at least near the end portion of the electric copper plate 1 accommodated between the rail 42 and the roller member 43. The roller member 43 can be pressed toward the rail 42 side. The electric copper plate 1a holding mechanism configured as described above prevents the electric copper plate 1a from being displaced during the movement of the transport box 40. Of course, any of the left and right roller members 43 can be configured to be movable up and down by the air cylinder 45. 3 shows a state in which the left roller member 43 has moved upward, and the right rail 42 has moved in the downward direction and pressed the copper sheet 1a against the rail 42.

  On the other hand, a pusher 49 is arranged on the traveling direction side of the transport box 40, and the pusher 49 contacts the copper electroplated plate 1a accommodated in the transport box 40, but does not contact the main body 41 portion of the transport box 40. It is configured not to prevent movement. Therefore, the movement of the transport box 40 prevents the copper copper plate 1 a placed against the pusher 49, while the transport box 40 continues to move, so that the copper copper plate 1 a is pushed out from the rail 42 and the roller member 43. Thus, it is discharged from the transport box 40 and falls (see FIG. 4). A pedestal 50 is disposed at a position where the electrolytic copper plate 1a is dropped. The pedestal 50 moves up and down so that the electrolytic copper plates 1a are stacked on the pedestal 50 one after another.

  As shown in FIG. 5, the pedestal 50 can be moved up and down by a hydraulic cylinder 51, and a height position adjustment provided with a sensor constituted by a light emitter 53a and a light receiver 53b at a predetermined height position. A device is provided. That is, the height position of the laminated uppermost copper sheet 1a is detected by a sensor, and thereby the lifting device 51 is operated so that the height position of the uppermost copper sheet 1a is always constant, thereby the base 50 Is designed to move up and down. Thereby, the electrical copper plate 1a extracted from the transport box 40 can always be dropped from the same height and stacked, and the piles of the stacked electrical copper plates 1a can be formed in a neatly aligned state. Here, the movement of the height position adjusting device will be described in detail. First, the light emitter 53a and the light receiver 53b are arranged at a height position where the uppermost electric copper plate 1a is laminated, and the light emitted from the light emitter 53a. When light is not received by the light receiver 53b, the lifting device 51 is lowered to move the base 50 downward. When the light emitted from the light emitter 53a is received by the light receiver 53b, the lifting device 51 moves. Control is performed so that the base 50 stops and stops. As a result, when a new electrical copper plate 1a is laminated on the uppermost electrical copper plate 1a, the light from the light emitter 53a is blocked by the thickness, and the light reception by the light receiver 53b is hindered. Then, the elevating device 51 starts to descend and the pedestal 50 is lowered. And if the peak of the laminated | stacked electrical copper plate 1a falls and the light receiver 53b receives the light from the light-emitting device 53a, the motion of the raising / lowering apparatus 51 will be stopped based on it. As a result, the base 50 stops at that position. By repeating this sequentially, the electric copper plate 1a is always laminated on the uppermost electric copper plate 1a from the same height position.

  In addition to the above-described vertical movement of the pedestal 50, an alignment guide is provided on the upper side of the pedestal 50 in order to neatly align the piles of the laminated electric copper plates 1a. As shown in FIG. 6, the alignment guide includes a first alignment plate 55a and a second alignment plate 55b. The first alignment plate 55a has a surface protruding in an arc shape. On the other hand, the second alignment plate 55 b has a substantially rhombic cross section, and is disposed between the first alignment plate 55 a and the pusher 49. As shown in FIG. 7, the first alignment plate 55a and the second alignment plate 55b form a pair. As a result, the copper sheets 1a transported by the transport box 40 as a set of two sheets are extracted from the transport box 40 and then guided by the first alignment plate 55a and the second alignment plate 55b so that their positions are It is corrected and laminated so as to be neatly aligned with the top of the peak of the electric copper plate 1a. In FIG. 6, the sensor and the lifting device are omitted.

  When a predetermined number of electrical copper plates 1a are stacked, the pile is transferred by the conveyor 61 and stored in a predetermined place in a stacked state.

  Next, an embodiment of the method for cutting an electric copper plate according to the present invention will be described together with the operation of the above-described electric copper plate cutting system 10. FIG. 8 is a flowchart of an embodiment of a method for cutting an electrolytic copper plate according to the present invention.

  First, the electrolytic copper plate 1 manufactured by the PC method is peeled off from the SUS plate by an electrical copper plate recovery system (not shown), and is transported to the electrical copper plate cutting system 10 by the transfer conveyor 2 in a state where a predetermined number of layers are stacked. Come. The electrolytic copper plate 1 set at a predetermined position is suspended one by one by the suction conveyance device 3 and transferred onto the conveyor 21. The gripping device 20 is located on the side of the pre-laminated electrolytic copper plate 1 (the right side in FIG. 1). The suction conveyance device 3 passes over the gripping device 20 and is placed on the left side of the gripping device 20 in FIG. 1 is placed. Then, the gripping device 20 moves leftward in FIG. 1, sandwiches both side ends of the electrolytic copper plate 1, and supplies the electrolytic copper plate 1 to the cutting device 30. At this time, since the electrolytic copper plate 1 is elastically held by the holding member 23 provided in the holding part 22 of the gripping device 20, deformation of the electrolytic copper plate 1 is suppressed (step S1).

  The electric copper plate 1 supplied to the cutting device 30 is cut into two equal parts, and each of the cut electric copper plates 1a is transferred onto the conveyor 31. At this time, the electric copper plate 1a is a guide on the left and right guide plates 26. It is placed on the conveyor 31 so that it is guided by the plates 27a and 27b and transported in an appropriate position. The copper electroplated plates 1a transferred to the transport box 40 by the transport conveyor 31 are accommodated in the transport box 40 as a set. And the conveyance box 40 which accommodated the cut | disconnected electrical copper plate 1a moves to the lamination | stacking position of the electrical copper plate 1a along the beam 40a, At this time, the roller member 43 of at least one side is pushed down with the air cylinder 45, thereby The vicinity of both end portions of the copper electroplating plate 1a is pressed to the rail 42 side to prevent the copper electroplating plate 1a from being displaced during the movement of the transport box 40 (step S2).

  When the transport box 40 is moved to a predetermined position, the pusher 49 comes into contact with the top copper sheet 1a accommodated in the transport box 40, and the copper sheet 1a falls so as to be pushed out of the transport box 40 and successively onto the pedestal 50. Are stacked (step S3). At that time, the two electric copper plates 1a are guided by the first alignment plate 55a and the second alignment plate 55b, respectively, and are laminated in a state of being neatly aligned (step S4).

  When a new electrical copper plate 1a is laminated on the uppermost electrical copper plate 1a, the light from the light emitter 53a is blocked by the thickness, and the light reception by the light receiver 53b is hindered. Then, the lifting device 51 slowly lowers the base 50 based on a predetermined sequence. When the light receiver 53b receives the light from the light emitter 53a, the movement of the elevating device 51 is stopped and the base 50 is stopped at that position (step 5). Thereby, the electrical copper plate 1a is always laminated | stacked on the uppermost electrical copper plate 1a from the same height position, and it contributes to the lamination | stacking which the electrical copper plate 1a arranged neatly. Then, when a predetermined number of copper sheets 1a are stacked, the mountain is transferred by the conveyor 61, and the stacking of the next copper sheet 1a is started.

  As described above, the preferred embodiment of the present invention has been described in detail. However, the present invention is not limited to the specific embodiment, and within the scope of the gist of the present invention described in the claims, Needless to say, various modifications and changes are possible.

It is a side view showing the whole composition of one embodiment of an electric copper board cutting system concerning the present invention. (A) is a perspective view which shows the outline | summary of a grasping apparatus, (b) is a perspective view which shows the outline | summary of a guide plate. It is a front view of a conveyance box. It is a side view which shows the relationship between a conveyance box and a base. It is a side surface schematic diagram which shows the height position adjustment of the base by a sensor. It is a side surface schematic diagram which shows the alignment guide which consists of a 1st alignment plate and a 2nd alignment plate. FIG. 7 is a plan view of FIG. 6. It is a flowchart of one Embodiment of the cutting method of the electrical copper plate which concerns on this invention.

Explanation of symbols

DESCRIPTION OF SYMBOLS 1 Electro copper plate 1a The cut | disconnected electric copper plate 10 The cutting system 20 of an electric copper plate Gripping device 21 Conveyor 22 Holding part 23 Holding member 25 Hydraulic cylinder 26 Guide plate 27a, 27b Guide guide 30 Cutting device 31 Conveying conveyor 40 Conveying box 40a Beam 41 Main body 42 Rail 43 Roller member 44 Mounting portion 45 Air cylinder 49 Pusher 50 Base 51 Lifting device 53a Light emitter 53b Light receiver 55a First alignment plate 55b Second alignment plate

Claims (9)

In an electric copper plate cutting system in which an electric copper plate manufactured by a permanent cathode method is cut by a cutting device, and further, a predetermined number of the cut electric copper plates are laminated.
A gripping device that clamps both end portions of the electric copper plate and supplies it to the cutting device, the gripping device including a holding portion provided with a holding member that elastically holds the electrolytic copper plate while preventing deformation of the electric copper plate during clamping. When,
A transport box that collectively accommodates and transports the cut copper sheets transported by the transport conveyor, and presses and holds each copper sheet to prevent displacement of each copper sheet during transport. A transport box with a holding mechanism, and
A height position adjusting device for adjusting a height position of a pedestal for laminating a plurality of copper electroplated plates taken out from the transport box, wherein the height position of the uppermost copper electroplated plates stacked one after another An electric copper sheet cutting system comprising: a height position adjusting device configured to detect and thereby raise and lower the pedestal so that the electric copper sheets are stacked at a predetermined height position. The electric copper sheet cutting system according to claim 1,
A guide plate is provided for guiding the copper plate so that the copper plate is transported in a proper position on the transport conveyor when the cut copper plate is transferred onto the transport conveyor. And electric copper sheet cutting system. The electric copper sheet cutting system according to claim 1,
The transport box is a pair of rails that are disposed at both left and right ends for supporting and sliding the electrical copper plate, and
A holding device having a roller that slidably presses at least one side of both side edges of an electric copper plate disposed on the rail from the upper side, the electric copper plate inserted between the roller and the rail An electric copper sheet cutting system comprising: a holding device that prevents displacement of the electric copper sheet at the time of transfer by pressing from the upper side. The electric copper sheet cutting system according to claim 1,
The height position adjusting device is configured to adjust the height of the pedestal by detecting a height position of the uppermost copper sheet laminated on the pedestal with a sensor. Cutting system. The electric copper sheet cutting system according to claim 1,
A pusher for taking out from the transport box by bringing it into contact with the top copper sheet of the plurality of copper sheets transported in a state of being accommodated in the transport box;
An electrical copper plate characterized in that an alignment guide is provided for laminating a plurality of electrical copper plates taken out from the transport box in a state of being correctly aligned to the uppermost position of the electrical copper plates laminated on the pedestal, respectively. Cutting system. In the electric copper sheet cutting system according to claim 5,
The alignment guide is
A first alignment plate having an arcuate shape whose surface protrudes in an arc shape;
A second alignment plate having a substantially diamond-shaped cross section disposed between the first alignment plate and the pusher;
The electric copper plates transported by the transport conveyor are dropped between the first alignment plate and the second alignment plate and between the second alignment plate and the pusher. An electric copper sheet cutting system characterized in that a copper sheet is guided and laminated in a state of being correctly aligned to a lamination position on the pedestal. In the method for cutting an electric copper plate, the electric copper plate produced by the permanent cathode method is cut by a cutting device, and the cut electric copper plates are laminated in a predetermined number of times.
A step of holding both side ends of the electric copper plate by a holding device provided with a holding member for preventing deformation of the electric copper plate in the holding portion, and supplying it to the cutting device;
Cutting the electric copper plate with a cutting device;
A step of transferring onto a conveyor via a guide plate so as to be conveyed in an appropriate position on a conveyor that conveys the copper sheet after cutting;
A process of accommodating a plurality of cut copper sheets in a transport box and transporting while pressing and holding each copper sheet by a holding mechanism in order to prevent positional displacement of each copper sheet during transport,
The height position of the uppermost copper sheet taken out from the transport box and stacked on the pedestal is detected, so that the copper sheet is stacked at a predetermined height position by moving the pedestal up and down. A method for cutting an electrolytic copper plate, comprising a height position adjusting step. In the cutting method of the electric copper board according to claim 7,
A pair of rails arranged on the left and right ends for supporting and sliding the electric copper plate, and pressing for slidably pressing at least one side of the both sides of the electric copper plate arranged on the rail from the upper side A method of cutting an electric copper plate, wherein the electric copper plate inserted between the roller and the rail is pressed from the upper side by a holding device having a roller to prevent displacement of the electric copper plate at the time of transfer. . In the cutting method of the electric copper board according to claim 7,
A step of removing the lead copper plate from the transport box by bringing the lead copper plate into contact with a pusher among a plurality of copper sheets transported in a state of being accommodated in the transport box;
Including a step of laminating a plurality of electrolytic copper plates taken out from the transport box in a correctly aligned state to the uppermost position of the electrical copper plates laminated on the pedestal by guiding them by an alignment guide. A method for cutting an electrolytic copper plate, characterized by being made.

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