JP2009075836A - Electroconductive member for non-contact type data carrier, and production method and device therefor - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To improve production yield of an electroconductive member for a non-contact type data carrier. <P>SOLUTION: This production method includes: a process for layering a first electroconductive strip 21 with a thermoplastic adhesive layer 11 formed thereon, and, a second electroconductive strip 14a via an insulating strip-like base material 10a through the thermoplastic adhesive layer 11 and a thermoplastic adhesive layer 12; a temporary cutting process for forming an electroconductive pattern 13 in the first electroconductive strip 21 at prescribed pitches; a first adhesive bonding process for bonding the first electroconductive strip 21 onto the base material 10a through the thermoplastic adhesive layer 11; a cutting process for removing an unnecessary part 14b in the first electroconductive strip 21 at a boundary with an electroconductive strip 14; a second adhesive bonding process for bonding the electroconductive strip 14 onto the base material 10a; a first unnecessary part removal process for peeling the other electroconductive portion 13c; and a second unnecessary part removal process for peeling the unnecessary part 14b from the base material 10a. <P>COPYRIGHT: (C)2009,JPO&INPIT

Description

  The present invention relates to a conductive member for a non-contact type data carrier such as an IC tag and a manufacturing method and apparatus thereof.

  An IC tag, an IC card, or the like, which is a non-contact data carrier conductive member, includes a conductive layer made of a metal foil on one or both of the front and back surfaces of an insulating substrate. For example, the conductive layer on the front side of the insulating substrate is formed as an antenna, and the conductive layer on the back side is formed as a bridge that connects between the terminal portions of the antenna. Or the conductive layer of both an antenna and a bridge | bridging may be formed in the front side. The terminal portion of the antenna and the bridge are electrically joined by through holes, caulking, welding or the like.

  Conventionally, an antenna is formed by a chemical method or a mechanical method. As a chemical method, for example, a metal layer is laminated on an insulating substrate, a resist film having a predetermined pattern is formed on the metal layer, and then etching is performed so that only the antenna pattern is formed on the insulating substrate. There is a way to leave. Examples of mechanical methods include the following. That is, a continuous metal foil is placed on a continuous insulating base material, and a portion of the metal foil necessary as an antenna is adhered to the base material through a pre-applied thermoplastic adhesive layer. Unnecessary parts are removed as unnecessary parts. And the continuous insulating base material which has an antenna is wound up in roll shape, or it divides | segments into a sheet form, and sends it to the following process. The continuous metal foil after extracting the antenna is wound up as an unnecessary portion, for example, in a roll shape and disposed of (see, for example, Patent Document 1).

  The bridge is also formed on the insulating base material by a chemical method or a mechanical method in the same manner as the antenna.

  In the case of a chemical method, a bridge metal layer is laminated on an insulating substrate, a resist film corresponding to a predetermined bridge pattern is formed on the metal layer, and then etched to form an insulating group. It is formed on the material.

In the case of the mechanical method, as shown in FIGS. 7 and 8, a continuous metal foil 2 that is a material of the bridge 1 is placed on an insulating base material 4 on which an antenna 3 is formed. Among them, a portion necessary as the bridge 1 is pressed by the heating board 5 to be bonded to the insulating substrate 4, and the bridge 1 is punched with the punching blade 6. The heating panel 5 and the punching blade 6 are held by a base 7 and can be reciprocated up and down integrally. A thermoplastic adhesive layer 9 is formed in advance on the metal foil 2, and the thermoplastic adhesive layer 9 is melted by the heat from the heating panel 5 to adhere the metal foil of the bridge 1 to the insulating substrate 4. The metal foil 2 after the bridge 1 is pulled out remains as a strip as an unnecessary portion 2a and is collected by being wound up in a roll shape.
JP 2006-277700 A

  In the conventional method for mechanically forming the antenna 3 and the bridge 1, as shown in FIGS. 7 and 8, the antenna 3 and the bridge 1 are formed separately, and the antenna 3 already formed on the insulating base 4 is used. When the bridge 1 is punched by the punching blade 6 from the metal foil 2 superimposed on the insulating base 4 on the base 8 arranged so as to face the base 7, between the antenna wires 3 a and 3 a of the antenna 3. In addition, the force of the punching blade 6 applied to the metal foil 2 is likely to be reduced where there is a gap δ between the antenna terminal portions 3b and 3b and the antenna wire 3a, and the terminal portions 3b and 3b and the antenna wire 3a are present. The force of the punching blade 6 applied to the metal foil 2 is likely to increase at the place where it is to be performed. For this reason, it is difficult to adjust the force applied to the punching blade 6, and if the pressing force against the punching blade 6 is too small, the bridge will be punched inaccurate, and if it is too large to be accurately punched, the antenna wire will be broken. Thus, the work for adjusting the appropriate pressing force becomes extremely complicated.

  Further, since the antenna 3 and the bridge 1 are formed separately, the timing between the operation of the punching blade 6 in the punching direction and the feed speed of the insulating base material 4 on which the antenna 3 is formed is not good or the machine If there is a certain error, the formation position of the antenna 3 and the bridge 1 may be shifted, which may affect the production yield.

  Therefore, an object of the present invention is to provide means that can solve the above-described problems.

  In order to solve the above problems, the present invention employs the following configuration.

  That is, in the invention according to claim 1, the conductive pattern (13) having the paired terminal portions (13b, 13b) and the conductive portions (13a) passing between the terminal portions (13b, 13b) has a constant pitch. Between the first conductive strip (21) formed with the thermoplastic adhesive layer (11) to be formed in (p) and the terminal portions (13b, 13b) of each conductive pattern (13) A second electrically conductive strip (14a) formed with the same width as the electrically conductive strip (14) to be connected, and formed with a thermoplastic adhesive layer (12), and an insulating strip substrate (10a) And a step of superposing the insulating strip-shaped substrate (10a) as an intermediate layer through the thermoplastic adhesive layer (11 and 12) and a pair in the first conductive strip (21) Between the terminal portions (13b, 13b) and the terminal portions (13b, 13b) A temporary cutting step of forming a conductive pattern (13) having a conductive portion (13a) at a constant pitch, and a pair of terminal portions (13b, 13b) in the first conductive strip (21), A conductive pattern (13) having a conductive portion (13a) passing between the terminal portions (13b, 13b) is passed through the thermoplastic adhesive layer (11) of the first conductive strip (21). The first bonding step for bonding to the substrate (10a) and the portion interposed between the terminal portions (13b, 13b) of the adjacent conductive pattern (13) in the first conductive strip (21) are unnecessary. Cutting step of separating from the second conductive strip (14a) at the boundary with the conductive strip (14) as a portion (14b), and each conductive pattern in the first conductive strip (21) Connect the terminal portions (13b, 13b) of (13) A second bonding step in which a portion is bonded to the base material (10a) through the thermoplastic adhesive layer (12) of the second conductive strip (14a) as the conductive strip (14); In the first conductive strip (21), a conductive material formed at a constant pitch having the paired terminal portions (13b, 13b) and a conductive portion passing between the terminal portions (13b, 13b). First unnecessary portion removing step of peeling off the other conductive portion (13c) excluding the conductive pattern (13a) and second unnecessary portion removing step of peeling off the unnecessary portion (14b) from the substrate (10a). And a method of manufacturing a non-contact data carrier conductive member.

  The method for manufacturing a conductive member for a non-contact type data carrier according to claim 1, wherein the first bonding step, the second bonding step, and the cutting step are simultaneously performed. It is characterized by that.

  3. The method of manufacturing a conductive member for a non-contact type data carrier according to claim 1, wherein the conductive strip (14) is overlapped with the execution of the temporary cutting step. A laminated material (29) having the first conductive strip (21), the second conductive strip (14a), and the insulating strip substrate (10a) superimposed in the process is predetermined. The first bonding step, the second bonding step, and the cutting step are simultaneously performed on the laminated material (29) at the place where the pitch (P) has moved.

  4. The method of manufacturing a non-contact data carrier conductive member according to claim 3, wherein the first bonding step and the second bonding step are performed simultaneously with the temporary cutting step. After the bonding step and the cutting step, the laminated material (29) subjected to the temporary cutting step is moved by a predetermined pitch (P), and the laminated material (29) subjected to the temporary cutting step. On the other hand, the first bonding step, the second bonding step, and the cutting step are performed simultaneously, and the laminated material (29) superposed in the superposition step is moved by a predetermined pitch (P). Whenever it does, said 1st adhesion process, said 2nd adhesion process, and a cutting process are performed simultaneously with execution of said temporary cutting process.

  5. The method for manufacturing a non-contact data carrier conductive member according to claim 1, wherein the first unnecessary portion removing step and the second unnecessary portion removing are performed. The step is performed by sucking with a suction nozzle.

  6. The method of manufacturing a conductive member for a non-contact type data carrier according to claim 1, wherein the first unnecessary portion removing step and the second unnecessary portion are provided. The part removing step is characterized by blowing air with an air blowing nozzle.

  According to a seventh aspect of the present invention, in the method for manufacturing a non-contact data carrier conductive member according to any one of the first to sixth aspects, the conductive pattern (13) is an antenna, The piece (14) is a bridge.

  In the invention according to claim 8, the conductive pattern (13) having the paired terminal portions (13b, 13b) and the conductive portions (13a) passing between the terminal portions (13b, 13b) has a constant pitch. (P) between the first conductive strip (21) on which the thermoplastic adhesive layer (11) is formed and the terminal portions (13b, 13b) of each conductive pattern (13) A second electrically conductive strip (14a) formed with the same width as the electrically conductive strip (14) to be connected, and formed with a thermoplastic adhesive layer (12), and an insulating strip substrate (10a) Through the thermoplastic adhesive layer (11 and 12), the transporting means for sending the insulating strip-like base material (10a) as a middle layer in one direction, and the first conductive strip (21 ) In the paired terminal portions (13b, 13b) and the terminal portions (13b, 1) b) The temporary cutting blade (24) for forming a conductive pattern (13) having a conductive portion (13a) passing between them at a constant pitch and the pair in the first conductive strip (21). The conductive pattern (13) having the terminal portions (13b, 13b) and the conductive portions (13a) passing between the terminal portions (13b, 13b) is transferred to the heat of the first conductive strip (21). A first adhesive means for adhering to the substrate (10a) through a plastic adhesive layer (11); and the terminal portions (13b) of the respective conductive patterns (13) in the first conductive strip (21). , 13b) on the base material (10a) via the thermoplastic adhesive layer (12) of the second conductive strip (14a) using the conductive strip (14) at the portion connecting the two. Second adhering means for adhering and adjacent in the first conductive strip (21) A portion interposed between the terminal portions (13b, 13b) of the conductive pattern (13) is defined as an unnecessary portion (14b), and the second conductive strip (14a) at the boundary with the conductive strip (14). The cutting blades (23, 23) to be separated from the first conductive thin strip (21) and the conductive portions passing between the paired terminal portions (13b, 13b) and the terminal portions (13b, 13b). A first unnecessary portion removing means (27) for peeling off the other conductive portion (13c) excluding the conductive pattern (13) formed at a constant pitch having the portion (13a), and the unnecessary portion (14b). And a second unnecessary portion removing means (28) for peeling off the substrate from the substrate (10a).

  As described in claim 9, in the apparatus for manufacturing a non-contact data carrier conductive member according to claim 8, the first bonding means, the second bonding means, and the cutting blade (23, 23). 23) is integrated.

  In the method of manufacturing a conductive member for a non-contact type data carrier according to claim 8, as described in claim 10, the temporary bonding blade (24) and the first bonding means integrated with the temporary cutting blade (24), The distance between the second bonding means and the cutting blades (23, 23) is a predetermined pitch (P) distance.

  The non-contact type data carrier conductive member manufacturing apparatus according to claim 10, wherein the temporary cutting blade (24), the first adhesion means, and the second adhesion means. And the cutting blades (23, 23) are integrated.

  12. The manufacturing apparatus for a non-contact type data carrier conductive member according to claim 8, wherein the first unnecessary portion removing means and the second unnecessary portion are described in claim 12. The part removing means includes a suction nozzle.

  In the manufacturing apparatus of the non-contact type data carrier conductive member according to any one of claims 8 to 12, as described in claim 13, the first unnecessary portion removing means and the second unnecessary portion. The part removing means includes an air blowing nozzle for blowing air.

  A first conductive pattern (13a) having a pair of terminal portions (13b, 13b) and a conductive portion passing between the terminal portions (13b, 13b) is formed. The conductive strip (21) is bonded to the insulating substrate (10a) through the thermoplastic adhesive layer (11), and the conductive strip (14) is connected to both ends thereof and the terminal portions (13b, 13b). ) Is bonded to the other surface of the insulating substrate (10a) through another thermoplastic adhesive layer (12) so as to match with each other, and the both ends of the conductive strip (14) are trimmed. A blade (23, 23) penetrates the first conductive thin strip (21), the insulating base (10a), and the thermoplastic adhesive layer (11, 12), thereby allowing a through hole (30, 30) is formed.

  The conductive member for a non-contact type data carrier according to claim 14, wherein the conductive pattern (13) is an antenna and the conductive strip (14) is a bridge. Features.

  The conductive member for a non-contact type data carrier according to claim 14 or 15, wherein the front and back surfaces of the base material (10a) are covered with a covering layer (18, 19), The coating layers (18, 19) on the front and back surfaces of the substrate (10a) are bonded to each other through the through holes (30, 30).

  According to the first aspect of the present invention, the conductive pattern (13) having the paired terminal portions (13b, 13b) and the conductive portions (13a) passing between the terminal portions (13b, 13b) has a constant pitch. Between the first conductive strip (21) formed with the thermoplastic adhesive layer (11) to be formed in (p) and the terminal portions (13b, 13b) of each conductive pattern (13) A second electrically conductive strip (14a) formed with the same width as the electrically conductive strip (14) to be connected, and formed with a thermoplastic adhesive layer (12), and an insulating strip substrate (10a) And the step of superimposing the insulating strip substrate (10a) as an intermediate layer through the thermoplastic adhesive layer (11 and 12) and the first conductive strip (21). Between the terminal portion (13b, 13b) and the terminal portion (13b, 13b). A temporary cutting step of forming a conductive pattern (13) having a portion (13a) at a constant pitch, a pair of terminal portions (13b, 13b) in the first conductive strip (21), and this terminal A conductive pattern (13) having a conductive portion (13a) passing between the portions (13b, 13b) through the thermoplastic adhesive layer (11) of the first conductive strip (21). The first bonding step for bonding to (10a) and the portion interposed between the terminal portions (13b, 13b) of the adjacent conductive pattern (13) in the first conductive strip (21) are unnecessary portions ( 14b) a cutting step of separating from the second conductive strip (14a) at the boundary with the conductive strip (14), and each conductive pattern (13 in the first conductive strip (21)). ) Of connecting the terminal portions (13b, 13b) A second bonding step of bonding to the substrate (10a) through the thermoplastic adhesive layer (12) of the second conductive strip (14a) as the conductive strip (14); Conductive pattern formed at a constant pitch having the paired terminal portions (13b, 13b) and conductive portions passing between the terminal portions (13b, 13b) in the first conductive strip (21). A first unnecessary part removing step of peeling off the other conductive part (13c) excluding (13a), a second unnecessary part removing step of peeling off the unnecessary part (14b) from the substrate (10a), Therefore, there is no need to punch a conductive strip such as a bridge from a wide metal foil as in the prior art. The conductive strip (14a) of the pair of terminal portions (13 Since the conductive strip (14) is formed by cutting on both sides of b and 13b), the generation of unnecessary portions of the metal foil is reduced, and therefore waste of the metal foil can be prevented.

  Further, since the number of processes is half that of the conventional processes, the cost can be reduced and the yield can be improved.

  The conductive strip (14) can be formed by cutting the second conductive strip (14a) on both sides of the pair of terminal portions (13b, 13b). Since it is not necessary to form a conductive strip (14) by inserting a punching blade across the conductive portion (13a) passing between 13b and 13b), the conductive strip (14) is formed easily and accurately. This also prevents disconnection of the conductive portion (13a) passing between the terminal portions (13b, 13b). Further, since the unnecessary portion (14b) is temporarily fixed to the base material (10a) and then removed, the unnecessary portion (14b) is prevented from being scattered and the unnecessary portion (14b) can be smoothly recovered.

  The method for manufacturing a conductive member for a non-contact type data carrier according to claim 1, wherein the first bonding step, the second bonding step, and the cutting step are simultaneously performed. By doing so, mechanical errors due to conveyance between the respective processes are reduced, and it becomes possible to securely bond and perform cutting with accurate accuracy.

  3. The method of manufacturing a conductive member for a non-contact type data carrier according to claim 1, wherein the conductive strip (14) is overlapped with the execution of the temporary cutting step. A laminated material (29) having the first conductive strip (21), the second conductive strip (14a), and the insulating strip substrate (10a) superimposed in the process is predetermined. If the first bonding step, the second bonding step, and the cutting step are simultaneously performed on the laminated material (29) at the place where the pitch (P) has moved, the pitch (P) interval Thus, the non-contact type data carrier conductive member can be produced with high accuracy, so that the non-contact type data carrier conductive member can be produced by an efficient production method for mass production.

  4. The method of manufacturing a non-contact data carrier conductive member according to claim 3, wherein the first bonding step and the second bonding step are performed simultaneously with the temporary cutting step. After the bonding step and the cutting step, the laminated material (29) subjected to the temporary cutting step is moved by a predetermined pitch (P), and the laminated material (29) subjected to the temporary cutting step. On the other hand, the first bonding step, the second bonding step, and the cutting step are performed simultaneously, and the laminated material (29) superposed in the superposition step is moved by a predetermined pitch (P). When the first bonding step, the second bonding step, and the cutting step are performed simultaneously with the temporary cutting step, the production line for the non-contact data carrier conductive member can be shortened. To do Kill. In addition, since each process is integrated, if the pitch (P) feed accuracy is accurate, there is no mechanical error and a non-contact type data carrier conductive member with uniform mechanical dimensions can be efficiently used. Mass production is possible.

  5. The method for manufacturing a non-contact data carrier conductive member according to claim 1, wherein the first unnecessary portion removing step and the second unnecessary portion removing are performed. If the process is performed by sucking with the suction nozzles (27, 28), the substrate (21) and the conductive strip (14) are brought into contact with the unnecessary portion (14b) and other conductive portions ( 13c) can be removed.

  6. The method for manufacturing a non-contact data carrier conductive member according to claim 1, wherein the first unnecessary portion removing step and the second unnecessary portion removing are performed. If air is blown by the air blowing nozzles (30, 31) in the process, unnecessary portions (14b) and other conductive portions (13c) are contacted with the base material (21) and the conductive strip (14) in a non-contact manner. ) Can be removed. Further, by using the suction nozzles (27, 28) in combination, the unnecessary portion (14b) and other conductive portions (13c) can be removed more smoothly and reliably.

  According to a seventh aspect of the present invention, in the method for manufacturing a non-contact data carrier conductive member according to any one of the first to sixth aspects, the conductive pattern (13) is an antenna, When the piece (14) is a bridge, the bridge (14) can be easily and accurately attached to the antenna (13).

  In the invention according to claim 8, the conductive pattern (13) having the paired terminal portions (13b, 13b) and the conductive portions (13a) passing between the terminal portions (13b, 13b) has a constant pitch. (P) between the first conductive strip (21) on which the thermoplastic adhesive layer (11) is formed and the terminal portions (13b, 13b) of each conductive pattern (13) A second electrically conductive strip (14a) formed with the same width as the electrically conductive strip (14) to be connected, and formed with a thermoplastic adhesive layer (12), and an insulating strip substrate (10a) Through the thermoplastic adhesive layer (11 and 12), the transporting means for sending the insulating strip-like base material (10a) as a middle layer in one direction, and the first conductive strip (21 ) In the paired terminal portions (13b, 13b) and the terminal portions (13b, 1) b) The temporary cutting blade (24) for forming a conductive pattern (13) having a conductive portion (13a) passing between them at a constant pitch and the pair in the first conductive strip (21). The conductive pattern (13) having the terminal portions (13b, 13b) and the conductive portions (13a) passing between the terminal portions (13b, 13b) is transferred to the heat of the first conductive strip (21). A first adhesive means for adhering to the substrate (10a) through a plastic adhesive layer (11); and the terminal portions (13b) of the respective conductive patterns (13) in the first conductive strip (21). , 13b) on the base material (10a) via the thermoplastic adhesive layer (12) of the second conductive strip (14a) using the conductive strip (14) at the portion connecting the two. Second adhering means for adhering and adjacent in the first conductive strip (21) A portion interposed between the terminal portions (13b, 13b) of the conductive pattern (13) is defined as an unnecessary portion (14b), and the second conductive strip (14a) at the boundary with the conductive strip (14). The cutting blades (23, 23) to be separated from the first conductive thin strip (21) and the conductive portions passing between the paired terminal portions (13b, 13b) and the terminal portions (13b, 13b). A first unnecessary portion removing means (27) for peeling off the other conductive portion (13c) excluding the conductive pattern (13) formed at a constant pitch having the portion (13a), and the unnecessary portion (14b). And a second unnecessary portion removing means (28) for stripping the substrate from the base material (10a). Punching conductive strips like bridges from There is no need, and the conductive strip (14) is formed by cutting the second conductive strip (14a) on both sides of the pair of terminal portions (13b, 13b). Therefore, the waste of the metal foil can be prevented.

  Further, since the number of processes is half that of the conventional processes, the cost can be reduced and the yield can be improved.

  The conductive strip (14) can be formed by cutting the second conductive strip (14a) on both sides of the pair of terminal portions (13b, 13b). Since it is not necessary to form a conductive strip (14) by inserting a punching blade across the conductive portion (13a) passing between 13b and 13b), the conductive strip (14) is formed easily and accurately. This also prevents disconnection of the conductive portion (13a) passing between the terminal portions (13b, 13b). Further, since the unnecessary portion (14b) is temporarily fixed to the base material (10a) and then removed, the unnecessary portion (14b) is prevented from being scattered and the unnecessary portion (14b) can be smoothly recovered.

  As described in claim 9, in the apparatus for manufacturing a non-contact data carrier conductive member according to claim 8, the first bonding means, the second bonding means, and the cutting blade (23, 23). If 23) is integrated, each process is performed at the same time, so that mechanical errors due to conveyance between the processes are reduced, bonding is performed securely, and cutting is performed with accurate accuracy. Is possible.

  In the method of manufacturing a conductive member for a non-contact type data carrier according to claim 8, as described in claim 10, the temporary bonding blade (24) and the first bonding means integrated with the temporary cutting blade (24), The first bonding, the second bonding, and the cutting are simultaneously performed by setting the interval between the second bonding means and the cutting blades (23, 23) to a predetermined pitch (P) interval. By doing so, the non-contact type data carrier conductive member can be accurately produced at a pitch (P) interval, so that the non-contact type data carrier conductive member can be produced by an efficient production method for mass production. .

  The non-contact type data carrier conductive member manufacturing apparatus according to claim 10, wherein the temporary cutting blade (24), the first adhesion means, and the second adhesion means. Since the cutting blades (23, 23) are integrated, the provisional cutting, the first bonding, the second bonding, and the cutting can be performed at the same time, so that the non-contact type data carrier conductive member can be manufactured. The line can be shortened. In addition, since each process is integrated, if the pitch (P) feed accuracy is accurate, there is no mechanical error and a non-contact type data carrier conductive member with uniform mechanical dimensions can be efficiently used. Mass production is possible.

  12. The manufacturing apparatus for a non-contact type data carrier conductive member according to claim 8, wherein the first unnecessary portion removing means and the second unnecessary portion are described in claim 12. If the part removing means includes the suction nozzle (27, 28), the unnecessary part (14b) and the other conductive part (13c) are not in contact with the base material (21) or the conductive strip (14). Can be removed.

  In the manufacturing apparatus of the non-contact type data carrier conductive member according to any one of claims 8 to 12, as described in claim 13, the first unnecessary portion removing means and the second unnecessary portion. If the part removing means includes an air blowing nozzle (30, 31) for blowing air, the unnecessary part (14b) and other conductive parts (non-contact with the base material (21) and the conductive strip (14) ( 13c) can be removed. Further, the unnecessary portion (14b) can be removed more smoothly and reliably by using the suction nozzles (27, 28) in combination.

  A first conductive pattern (13a) having a pair of terminal portions (13b, 13b) and a conductive portion passing between the terminal portions (13b, 13b) is formed. The conductive strip (21) is bonded to the insulating substrate (10a) through the thermoplastic adhesive layer (11), and the conductive strip (14) is connected to both ends thereof and the terminal portions (13b, 13b). ) Is bonded to the other surface of the insulating substrate (10a) through another thermoplastic adhesive layer (12) so as to match with each other, and the both ends of the conductive strip (14) are trimmed. A blade (23, 23) penetrates through the first conductive strip (21), the insulating base (10a), and the thermoplastic adhesive layer (11, 12), thereby allowing a through hole (15, 15) is a non-contact type data carrier conductive member formed with a through-hole (15 By confirming the presence or absence of 15) visually, etc., it can be electrically conductive strips (14) it is determined whether or not properly attached to the substrate (10a).

  The conductive member for a non-contact type data carrier according to claim 14, wherein the conductive pattern (13) is an antenna and the conductive strip (14) is a bridge. It is possible to determine whether or not the bridge (14) is properly connected to the antenna (13) by visually confirming the presence or absence of the through hole.

  The conductive member for a non-contact type data carrier according to claim 14 or 15, wherein the front and back surfaces of the base material (10a) are covered with a covering layer (18, 19), By making the coating layers (18, 19) on the front and back surfaces of the substrate (10a) adhere to each other through the through holes (15, 15), peeling of the coating layers (18, 19) can be prevented. An IC card having excellent durability can be obtained.

  The best mode for carrying out the present invention will be described below with reference to the drawings.

  1, FIG. 2 and FIG. 4 (A) show a non-contact type data carrier conductive member that can be manufactured by this non-contact type data carrier conductive member manufacturing method.

  As shown in these drawings, the thermoplastic adhesive layers 11 and 12 are formed in desired conductive patterns of the antenna 13 and the bridge 14 on the front and back surfaces of the insulating base material 10 in the non-contact data carrier conductive member, respectively. Then, a conductive layer corresponding to the pattern of the antenna 13 or the bridge 14 is laminated and fixed on the thermoplastic adhesive layers 11 and 12.

  The insulating substrate 10 is formed of a synthetic resin sheet or a sheet obtained by laminating them. The thickness of the insulating substrate 10 is approximately 30 μm to 70 μm. The insulating substrate 10 is formed in a rectangular shape in the illustrated example, but may have other desired shapes. For example, polyethylene terephthalate (PET) can be used as the synthetic resin.

  As shown in FIGS. 1 and 4A, the antenna 13 includes an antenna wire 13a formed in a spiral shape and a pair of terminal portions 13b and 13b. The antenna line 13a passes between the paired terminal portions 13b and 13b. A pair of connection portions 13b and 13b are formed in a part of the antenna line 13a.

  The bridge 14 on the back surface of the insulating substrate 10 is formed of a conductive strip made of metal foil and is formed into a ribbon-like long and narrow rectangle.

  The bridge 14 is formed by sticking a thin metal foil such as a strip-like aluminum foil to the insulating substrate 10 as will be described later. 2 and 4A, reference numeral 15 denotes a cut-out portion formed by cutting blades at both ends of the conductive strip when the conductive strip is arranged as a bridge 14 as will be described later.

  In order for the non-contact data carrier conductive member to function as a non-contact data carrier, the terminal portions 13b and 13b of the antenna 13 must be electrically connected. Therefore, as shown in FIG. 3 and FIG. 4B, the terminal portions 13b and 13b of the antenna 13 in the non-contact data carrier conductive member and the both ends of the bridge 14 are joined to each other. Electrical conduction between the conductive layer and the conductive layer of the bridge 14 is ensured.

  This electrical continuity is performed, for example, by ultrasonically welding the terminal portions 13b and 13b that form a pair of the antenna 13 and both ends of the bridge 14 in the thickness direction of the insulating base material 10. 3 and 4B, reference numerals 16 and 16 denote concave portions formed by being pressed by the ultrasonic transducer. In addition, the electrical continuity can be performed by resistance welding, mechanical caulking, through holes, and the like.

  Further, in order to make the conductive member for the non-contact type data carrier function as a non-contact type data carrier, as shown in FIG. Connected.

  As described above, the non-contact type data carrier conductive member in which the bridge 14 is electrically connected to the antenna 13 and the IC chip 17 is mounted, for example, as shown in FIG. By being covered with the covering layers 18 and 19, for example, an IC card is obtained.

  In FIG. 5, reference numerals 18 a and 19 a denote core material layers that are covered on the conductive layer of the antenna 13 and the conductive layer of the bridge 14 on the front and back surfaces of the insulating base material 10, respectively. The surface layers which respectively cover the surfaces of 18a and 19a are shown. The core layers 18a and 19a include a resin sheet that gives strength as a card, and the surface layers 18b and 19b include a printing ink layer that displays desired contents.

  When the IC card having the above configuration is used, various kinds of information are read or written in the electromagnetic field by a reading / writing device (not shown) with respect to the IC chip 17. The frequency used for reading or writing is, for example, 8 MHz to 208 MHz.

  Next, a manufacturing method and apparatus for the non-contact data carrier conductive member 1 shown in FIGS. 1, 2 and 4A will be described with reference to FIG.

  As shown in FIG. 6, the conductive pattern of the antenna 13 having a pair of terminal portions 13b and 13b and a conductive portion which is an antenna line 13a passing between the terminal portions 13b and 13b is formed at a constant pitch. The first conductive strip 21 is intermittently fed at a predetermined pitch p in the direction indicated by the arrow. In FIG. 6, the code | symbol 22 shows the roller for pressing the 1st electroconductive strip 21 against the insulating strip | belt-shaped base material 10a. A thermoplastic adhesive layer 11 (see FIG. 4) is formed on one surface of the second conductive thin strip 14a facing the insulating strip substrate 10a. As the thermoplastic adhesive that is the material of the thermoplastic adhesive layer 11, a polyester-based adhesive can be used. The polyester-based adhesive exhibits tackiness when heated at about 80 ° C., and is suitable for bonding the second conductive fine band 14a to the insulating band-shaped substrate 10a made of PET that is relatively heat-sensitive.

  In addition, the second conductive strip 14a formed in the same width as the bridge 14 which is a conductive strip to be connected between the terminal portions 13b, 13b of each antenna 13 is connected to the terminal portions 13b, 13b of the antenna 13. Are overlaid on the insulating belt-like substrate 10a so as to match. In FIG. 6, the code | symbol 20 shows the roller for pressing the 2nd electroconductive strip 14a against the insulating strip | belt-shaped base material 10a. Further, similarly to the first conductive thin band 21, it is intermittently fed at a predetermined pitch p in the direction indicated by the arrow. A thermoplastic adhesive layer 12 (see FIG. 4) is formed on one surface of the second conductive strip 14a facing the insulating strip-shaped substrate 10a, like the first conductive strip 21. Yes. As the thermoplastic adhesive that is the material of the thermoplastic adhesive layer 12, a polyester-based adhesive can be used. The polyester-based adhesive exhibits tackiness when heated at about 80 ° C., and is suitable for bonding the second conductive fine band 14a to the insulating band-shaped substrate 10a made of PET that is relatively heat-sensitive.

  Further, the insulating band-shaped substrate 10a as an intermediate layer sandwiched between the first conductive band 21 and the second conductive band 14a is formed by the first conductive band 21 and the second conductive band. Synchronously with the conveyance with 14a, it is intermittently fed at a predetermined pitch p in the direction indicated by the arrow. That is, the overlapping body (laminated material 29) of the overlapping first conductive strip 21, second conductive strip 14a, and insulating strip base material 10a is intermittent at a predetermined pitch p in the direction indicated by the arrow. Sent. The insulating belt-like base material 10a is a continuous body of the insulating base material 10 shown in FIGS.

  Although not shown, the conveying means for sending the insulating strip base material 10a (and the superposed body (laminate material 29)) can be constituted by, for example, a roller or a servo motor that sandwiches the insulating strip base material 10a from above and below. Is intermittently rotated by a servo motor, so that the insulating strip base material 10a can be intermittently run in the direction of the arrow. Further, the pin wheel can be locked in a marginal punch hole (not shown) formed on both the left and right sides of the insulating belt-like base material 10a, and the pin wheel can be conveyed by intermittent rotation.

  Furthermore, the temporary cutting blade which forms the conductive pattern 13 which has the terminal part 13b, 13b which became the pair in the 1st conductive thin strip 21, and the conductive part 13a which passes between this terminal part 13b, 13b with a fixed pitch. 24 and a conductive pattern 13 having a pair of terminal portions 13b and 13b and a conductive portion 13a passing between the terminal portions 13b and 13b are interposed through the thermoplastic adhesive layer 11 of the first conductive strip 21. A portion connecting the terminal portions 13b and 13b of the antennas 13 in the second conductive strip 14a along the feeding direction of the superposed body and the heating board 26 (first bonding means) to be bonded to the base material 10a. A heating plate 25 (second bonding means) for bonding to the insulating strip substrate 10a via the thermoplastic adhesive layer 12 as the bridge 14 and the second conductive thin band at the boundary between the unnecessary portion 14b and the bridge 14. Cut from 14a The cutting blades 23, 23, and the first conductive strip 21 are formed at a constant pitch having the paired terminal portions 13b, 13b and conductive portions passing between the terminal portions 13b, 13b. First unnecessary portion removing means 27 for stripping off the conductive portion 13c temporarily secured to the other insulating strip substrate 10a excluding the conductive pattern 13a, and the unnecessary portion temporarily secured to the insulating strip substrate 10a A second unnecessary portion removing means 28 for peeling 14b from the insulating belt-like substrate 10a is disposed.

  In the present embodiment, as shown in FIG. 6, the pair of terminal portions 13 b and 13 b and the conductive portion 13 a passing between the terminal portions 13 b and 13 b in the first conductive strip 21 are provided. The conductive pattern 13 having a temporary cutting blade 24 for forming the conductive pattern 13 having a constant pitch, a pair of terminal portions 13b and 13b, and a conductive portion 13a passing between the terminal portions 13b and 13b is formed as a first pattern. A heating board 26 (first bonding means) for bonding to the base material 10a through the thermoplastic adhesive layer 11 of the conductive strip 21 and a second conductive strip 14a along the feeding direction of the superimposed body A heating board 25 (second bonding means) for bonding to the insulating belt-like substrate 10a through the thermoplastic adhesive layer 12 with the portion connecting the terminal portions 13b, 13b of each antenna 13 as a bridge 14 is one base. 31 (engraving blade) It is formed as a body.

  More specifically, on the upstream side of the base 31, a conductive material having a pair of terminal portions 13 b and 13 b and a conductive portion 13 a passing between the terminal portions 13 b and 13 b in the first conductive thin strip 21. The temporary cutting blade 24 for forming the sexual pattern 13 at a constant pitch is provided, and on the downstream side of the base 31, there is a pair of terminal portions 13b, 13b and a conductive portion 13a passing between the terminal portions 13b, 13b. A heating board 26 (first bonding means) for bonding the conductive pattern 13 to the base material 10a via the thermoplastic adhesive layer 11 of the first conductive strip 21 and a feed direction of the superimposed body, A heating plate 25 (second bonding) for bonding the portion between the terminal portions 13b, 13b of each antenna 13 in the two conductive thin strips 14a to the insulating strip base material 10a via the thermoplastic adhesive layer 12 as a bridge 14. Means) It is integrally formed in one.

  The heating boards 25 and 26 are provided in the conveyance direction of the superimposed body. By providing the heating board 25, the bridge 14 is firmly bonded to the insulating belt-like substrate 10 a and the terminal portions 13 b and 13 b of the antenna 13. The heating board 25 has a heating surface having a shape that matches the shape of the bridge 14.

  Further, by providing the heating board 26, the conductive pattern 13a formed at a constant pitch having a pair of terminal portions 13b, 13b and a conductive portion passing between the terminal portions 13b, 13b can be formed into an insulating strip base. It will adhere firmly to the material 10a. The heating board 25 has a heating surface having a shape that matches the shape of the conductive pattern 13a formed at a constant pitch and having a pair of terminal portions 13b and 13b and a conductive portion passing between the terminal portions 13b and 13b. Have.

  The cutting blades 23, 23 are provided on the base 31. The cutting blades 23, 23 are arranged so as to cross the second conductive strip 14 a, and are provided at intervals corresponding to the length of the bridge 14.

  The temporary cutting blade 24 on the upstream side, the heating plate 25 on the downstream side, the heating plate 26, and the cutting blades 23, 23 are arranged so as to be shifted by one pitch p in the conveying direction of the superimposed body. As described above, the temporary cutting blade 24 on the upstream side, the heating plate 25 on the downstream side, the heating plate 26, and the cutting blades 23, 23 are all integrated by being fixed to a single plate-like base 25. It has become. An electric heating wire (not shown) is incorporated in the base 25, and the heat of the electric heating wire is transmitted to the heating board 25 and the heating board 26.

  The base plate 25 is disposed above the superposed body so that the heating plate 25, the heating plate 26, and the like face the first conductive thin band 21. Further, a base 30 is provided below the superimposed body so as to face the base 25 with the superimposed body interposed therebetween.

  However, this embodiment is not limited to the case where the base 25, the superposed body, and the base 30 are arranged in this order from above in FIG. 6, and the base 30 is at the top in FIG. It is also possible to adopt a form in which the base 25 is at the lowermost position and the superposed body is conveyed between the base 30 and the base 25. In this case, the layer structure of the superimposed body is opposite to that shown in FIG. That is, in FIG. 6, the lowest layer of the superposed body is the first conductive thin band 21, the top layer of the superposed body is the second conductive thin band 14a, and the insulating belt-like substrate 10a is located in the middle layer. Become. In FIG. 6, a temporary cutting blade 24, a heating plate 25, a heating plate 26, and cutting blades 23 and 23 are provided on the upper surface side of the base 25.

  The first unnecessary part removing unit and the second unnecessary part removing unit are configured to include the suction nozzle 27, the suction nozzle 28, the air blowing nozzle 30, and the air blowing nozzle 31.

  The suction nozzle 27 is arranged so that the suction port 27 a faces the first conductive thin band 21 further downstream than the downstream side base 25 as viewed in the conveying direction of the superimposed body. The suction nozzle 27 generates a negative pressure by driving a blower (not shown), and the other conductive portion 13c of the first conductive thin strip 21 is sucked and removed from the suction opening 27a to the insulating strip base material 10a without contact. It is supposed to be.

  The air blowing nozzle 30 is arranged in the vicinity of the suction nozzle 27 so that the blowing port 30a can blow air between the first conductive strip 21 and the insulating strip base material 10a. The air blowing nozzle 30 blows air supplied from a blower or the like (not shown) from the blowing port 30a toward the first conductive thin band 21, and the first conductive fine band temporarily fixed to the insulating band-shaped substrate 10a. The other conductive portion 13c of the band 21 is peeled off from the insulating band-shaped substrate 10a. Thereby, the other electroconductive part 13c of the 1st electroconductive strip 21 is reliably removed from the insulating strip | belt-shaped base material 10a by non-contact.

  The suction nozzle 27 and the air blowing nozzle 30 may be used in combination as in this embodiment, or may be provided independently and other conductive portions 13c of the first conductive strip 21 by suction or air blowing. May be removed from the substrate 10a.

  The suction nozzle 28 is arranged on the further downstream side of the substrate 25 on the downstream side when viewed in the conveying direction of the superposed body so that the suction port 28a faces the second conductive thin band 14a. The suction nozzle 28 generates a negative pressure by driving a blower (not shown), and the unnecessary portion 14b of the second conductive thin strip 14a is sucked and removed from the suction strip 28a in a non-contact manner to the insulating strip base material 10a. It has become.

  The air blowing nozzle 31 is disposed in the vicinity of the suction nozzle 28 so that the blowing port 31a can blow air between the second conductive thin strip 14a and the insulating strip-shaped substrate 10a. The air blowing nozzle 31 blows air supplied from a blower (not shown) from the blowing port 31a toward the second conductive thin band 14a, and insulates the unnecessary portion 14b temporarily fixed to the insulating band-shaped substrate 10a. It peels off from the strip | belt-shaped base material 10a. Thereby, the unnecessary part 14b is reliably removed from the insulating strip base material 10a in a non-contact manner.

  The suction nozzle 28 and the air blowing nozzle 31 may be used in combination as in this embodiment, or may be provided alone to remove the unnecessary portion 14b from the base material 10a by suction or air blowing. .

  As shown in FIG. 6, the superposed body in which the first conductive strip 21, the insulating strip base material 10a, and the second conductive strip 14a overlap is intermittently fed at a predetermined pitch p in the arrow direction. Then, each time the superimposed body stops, the base 25 reciprocates once in the direction of the arrow.

  As a result, one non-contact type data carrier conductive member shown in FIGS. 1, 2, and 4A is formed in one pitch of the superposed body by the substrate 25 reciprocating up and down once. Become.

  That is, when the base 25 is reciprocated once in the vertical direction, the temporary cutting blade 24 on the upstream side passes through the pair of terminal portions 13b and 13b and the terminal portions 13b and 13b in the first conductive strip 21. Conductive patterns (antenna patterns) 13 having conductive portions 13a are formed at a constant pitch. Thereby, the antenna pattern is formed in a state where it is adhered to the insulating strip substrate 10a. The temporary cutting blade 24 cuts the first conductive strip 21, but the position of the temporary cutting blade 24 is adjusted so as not to cut the insulating strip base material 10a.

  At the same time (at the time of the first reciprocation of the base plate 25), on the downstream side of the base plate 25, the heating board 25 corresponds to the bridge 14 of the second conductive thin band 14a between the terminal portions 13b and 13b of the antenna 13. Press the part and thermocompression. Thereby, the portion of the thermoplastic adhesive layer 12 corresponding to the bridge 14 exhibits adhesiveness due to heat, and the portion corresponding to the bridge 14 adheres to the insulating strip base material 10a.

  Furthermore, at the same time (at the time of lowering of the first round-trip of the base plate 25), on the downstream side of the base plate 25, the heating board 26 connects the paired terminal portions 13b and 13b and the conductive portion passing between the terminal portions 13b and 13b. The conductive pattern 13a formed at a constant pitch is pressed and thermocompression bonded. As a result, the portion of the thermoplastic adhesive layer 11 corresponding to the conductive pattern 13a exhibits adhesiveness due to heat, and the portion corresponding to the conductive pattern 13a adheres to the insulating strip substrate 10a.

  Furthermore, at the same time (at the time of lowering of the first reciprocation of the base plate 25), the two cutting blades 23, 23 pass through the first conductive strip 21 and the insulating strip base material 10a, while the second conductive strip. Cutting is performed by pressing the band 14a. Thereby, the boundary between the bridge 14 and the unnecessary portion 14b of the second conductive thin strip 14a is cut, and both end edges of the bridge 14 are adjusted. In this case, through holes 15 and 15 as shown in FIG. 2 and FIG. 4A are formed in the first conductive thin strip 21 and the insulating strip base material 10a by the two cutting blades 23 and 23. The

  Further, when the base plate 25 is raised for the second reciprocation, and the superposed body is further advanced by one pitch and stopped, and the base plate 25 is lowered, the upstream temporary cutting blade 24, the downstream heating plate 25, the heating plate 26, The cutting blades 23 and 23 repeat the process described above.

  As described above, each time the base 25 reciprocates in the vertical direction, one antenna 13 is formed on the superposed body, and the attachment of the bridge 14 to one antenna 13 of the superposed body is completed. By repeating the up and down reciprocation, the antenna 13 to which the bridge 14 is attached is continuously sent out of the base 25. In addition, the unnecessary portion 14b between the bridges 14 and 14 in the second conductive strip 14a and the other conductive portion 13c in the first conductive strip 21 are temporarily fastened to the insulating strip base material 10a. Is sent out of the base 25 together with the insulating belt-like substrate 10a.

  The superposed body sent out of the base 25 is conveyed directly above the suction nozzle 28, and the surface thereof is sucked by the suction port 28 a of the suction nozzle 28. Moreover, the air from the blowing port 31a of the air blowing nozzle 31 is sent between the unnecessary part 14b and the insulating strip-shaped base material 10a. As a result, the unnecessary portion 14b of the second conductive strip 14a temporarily secured to the insulating strip base material 10a is peeled off from the insulating strip base material 10a and sucked into the suction nozzle 28 to collect dust that is not shown. Collected in a bag.

  Similarly, the superposed body fed out of the base 25 is conveyed directly below the suction nozzle 27, and the surface thereof is sucked by the suction port 27 a of the suction nozzle 27. In addition, air from the outlet 30a of the air outlet nozzle 30 is sent between the other conductive portion 13c of the first conductive strip 21 and the insulating strip base material 10a. As a result, the other conductive portion 13c of the first conductive strip 21 temporarily attached to the insulating strip substrate 10a is peeled off from the insulating strip substrate 10a and sucked into the suction nozzle 27. Not collected in a dust bag.

  The superposed body from which the unnecessary portion 14b between the bridges 14 and 14 in the second conductive strip 14a and the other conductive portion 13c in the first conductive strip 21 are removed is shown in FIGS. As shown in B), it is subjected to subsequent steps such as electrical conduction processing, IC chip mounting processing, cutting processing, and the like, and further processed into, for example, an IC card as shown in FIG.

  In addition, this invention is not limited to the said embodiment, A various change is possible within the range of the summary of this invention. For example, in the above embodiment, the conductive member for the non-contact type data carrier is manufactured while intermittently feeding the superimposed body. However, the base is changed to a rotary type so that the superimposed body is continuously fed without contact. You may make it manufacture the electrically-conductive member for type | mold data carriers. In the embodiment, the insulating strip base material is made of a synthetic resin such as PET. However, the insulating strip base material can be made of paper or a laminate of paper and resin.

It is a surface view of the electroconductive member for non-contact type data carriers manufactured by the manufacturing method concerning the present invention. It is a reverse view of the electroconductive member for non-contact type data carriers shown in FIG. FIG. 3 is a surface view of a non-contact data carrier conductive member in which an IC chip is mounted by electrically connecting a bridge to an antenna. 1A is a cross-sectional view taken along line IVA-IVA in FIG. 1, and FIG. 4B is a cross-sectional view taken along line IVB-IVB in FIG. It is sectional drawing of the IC card produced using the electrically-conductive member for non-contact-type data carriers shown in FIG. It is a perspective view which shows the manufacturing method of the electroconductive member for non-contact-type data carriers which concerns on embodiment of this invention. It is a perspective view which shows the manufacturing method of the conventional conductive member for non-contact-type data carriers. FIG. 7 is a cross-sectional view taken along line XII-XII in FIG.

Explanation of symbols

DESCRIPTION OF SYMBOLS 10 ... Insulating base material 10a ... Insulating strip-shaped base material 12 ... Thermoplastic adhesive layer 13 ... Antenna 13b, 13b ... Terminal part 13a ... Antenna wire 14 ... Bridge 14a ... Second electroconductive strip 14b ... Unnecessary part 15 , 15 ... Through-hole 18, 19 ... Cover layer 21 ... First conductive strip 23 ... Cutting blade 24 ... Temporary cutting blade 27, 28 ... Suction nozzle P ... Pitch

Claims (16)

A conductive pattern having a pair of terminal portions and a conductive portion passing between the terminal portions should be formed at a constant pitch, a first conductive thin band formed with a thermoplastic adhesive layer, and each conductive A second conductive thin strip formed with the same width as the conductive strip to be connected between the terminal portions of the conductive pattern and formed with a thermoplastic adhesive layer, and the insulating strip-shaped substrate. A step of superposing the insulating strip-shaped base material as an intermediate layer through an adhesive layer;
In the first conductive strip, a temporary cutting step of forming a conductive pattern having a pair of terminal portions and a conductive portion passing between the terminal portions at a constant pitch,
The conductive pattern having the pair of terminal portions in the first conductive strip and the conductive portion passing between the terminal portions, and the thermoplastic adhesive layer of the first conductive strip. A first bonding step for bonding to the substrate via,
In the part connecting the terminal portions of each conductive pattern in the first conductive strip, the base is interposed through the thermoplastic adhesive layer of the second conductive strip using the conductive strip. A second bonding step for bonding to the material;
A cutting step of separating from the second conductive strip at the boundary with the conductive strip as an unnecessary portion a portion interposed between terminal portions of adjacent conductive patterns in the conductive strip;
The first conductive strip removes the other conductive portions except the conductive pattern formed at a constant pitch having the paired terminal portions and the conductive portions passing between the terminal portions. An unnecessary part removing step,
A second unnecessary part removing step of peeling off the unnecessary part from the substrate;
A method for producing a non-contact data carrier conductive member, comprising:   2. The non-contact type data carrier manufacturing method according to claim 1, wherein the first bonding step, the second bonding step, and the cutting step are performed simultaneously. For producing a conductive member.   2. The method for manufacturing a conductive member for a non-contact type data carrier according to claim 1, wherein the conductive strip is overlapped in the superimposing step with the first conductive strip as the temporary cutting step is performed. , The first bonding step, the second bonding to the laminated material at a place where the laminated material having the second conductive thin band and the insulating band-shaped substrate is moved by a predetermined pitch. A method for producing a conductive member for a non-contact type data carrier, wherein the step and the cutting step are performed simultaneously.   In the manufacturing method of the conductive member for non-contact type data carrier according to claim 3, after the first adhesion process, the second adhesion process, and the cutting process performed simultaneously with the execution of the temporary cutting process, The laminated material on which the temporary cutting step has been executed is moved by a predetermined pitch, and the first bonding step, the second bonding step, and the laminated material on which the temporary cutting step has been executed, and Each time the cutting process is performed and the laminated material superposed in the superimposing process is moved by a predetermined pitch, the first adhering process and the second adhering process are performed simultaneously with the execution of the temporary cutting process. And the manufacturing method of the electrically-conductive member for non-contact-type data carriers characterized by performing the said cutting process.   5. The method of manufacturing a non-contact data carrier conductive member according to claim 1, wherein the first unnecessary portion removing step and the second unnecessary portion removing step are sucked by a suction nozzle. A method of manufacturing a conductive member for a non-contact type data carrier.   6. The method of manufacturing a conductive member for a non-contact type data carrier according to claim 1, wherein the first unnecessary portion removing step and the second unnecessary portion removing step are performed with an air blowing nozzle. A method for producing a conductive member for a non-contact type data carrier, which is performed by spraying.   7. The non-contact type data carrier conductive member manufacturing method according to claim 1, wherein the conductive pattern is an antenna and the conductive strip is a bridge. A method for manufacturing a conductive member for a data carrier. A conductive pattern having a pair of terminal portions and a conductive portion passing between the terminal portions should be formed at a constant pitch, a first conductive thin band formed with a thermoplastic adhesive layer, and each conductive A second conductive thin strip formed with the same width as the conductive strip to be connected between the terminal portions of the conductive pattern and having a thermoplastic adhesive layer formed thereon, and an insulating strip-shaped substrate. Conveying means for superimposing the insulating strip-shaped substrate as an intermediate layer and sending it in one direction through a plastic adhesive layer;
A temporary cutting blade for forming a conductive pattern having a pair of terminal portions and a conductive portion passing between the terminal portions at a constant pitch in the first conductive strip;
The conductive pattern having the pair of terminal portions in the first conductive strip and the conductive portion passing between the terminal portions, and the thermoplastic adhesive layer of the first conductive strip. A first adhesion means for adhering to the substrate via,
In the part connecting the terminal portions of each conductive pattern in the first conductive strip, the base is interposed through the thermoplastic adhesive layer of the second conductive strip using the conductive strip. A second bonding means for bonding to the material;
A cutting blade that separates from the second conductive strip at the boundary with the conductive strip as an unnecessary portion a portion interposed between terminal portions of adjacent conductive patterns in the conductive strip;
In the first conductive strip, the other conductive portions excluding the conductive pattern formed at a constant pitch having the paired terminal portions and the conductive portions passing between the terminal portions are peeled off. An unnecessary portion removing means;
A second unnecessary part removing means for peeling off the unnecessary part from the substrate;
An apparatus for manufacturing a conductive member for a non-contact type data carrier, comprising:   9. The non-contact type data carrier conductive member manufacturing apparatus according to claim 8, wherein the first adhesive means, the second adhesive means, and the cutting blade are integrated. Manufacturing device for conductive member for type data carrier.   9. The method of manufacturing a conductive member for a non-contact type data carrier according to claim 8, wherein the temporary cutting blade and the first bonding means, the second bonding means, and the cutting blade integrated with each other. An apparatus for manufacturing a non-contact data carrier conductive member, characterized in that the interval is a predetermined pitch interval.   11. The non-contact data carrier conductive member manufacturing apparatus according to claim 10, wherein the temporary cutting blade, the first bonding means, the second bonding means, and the cutting blade are integrated. A non-contact type data carrier conductive member manufacturing apparatus.   12. The non-contact data carrier conductive member manufacturing apparatus according to claim 8, wherein the first unnecessary portion removing means and the second unnecessary portion removing means include a suction nozzle. A non-contact type data carrier conductive member manufacturing apparatus.   13. The non-contact data carrier conductive member manufacturing apparatus according to claim 8, wherein the first unnecessary portion removing means and the second unnecessary portion removing means blow air. An apparatus for producing a non-contact type data carrier conductive member.   A first conductive strip formed with a conductive pattern having a pair of terminal portions and a conductive portion passing between the terminal portions is bonded to an insulating substrate via a thermoplastic adhesive layer, and conductive. The conductive strip is bonded to the other surface of the insulating base material through another thermoplastic adhesive layer so that the both end portions and the terminal portion are aligned, and the both end edges of the conductive strip are arranged. A conductive member for a non-contact type data carrier, characterized in that a through-hole is formed by a cutting blade penetrating the first conductive thin strip, the insulating substrate, and the thermoplastic adhesive layer. .   The conductive member for a non-contact type data carrier according to claim 14, wherein the conductive pattern is an antenna and the conductive strip is a bridge.   The conductive member for a non-contact type data carrier according to claim 14 or 15, wherein the front and back surfaces of the substrate are covered with a coating layer, and the coating layers on the front and back surfaces of the substrate are bonded to each other through a through hole. A conductive member for a non-contact type data carrier.

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