JP4698531B2 - Conductive connector - Google Patents

Description

  The present invention is used to connect two current-carrying parts that are spaced apart from each other, for example, a connection between a conductive pattern on a substrate and a power supply line arranged on the substrate. The present invention relates to a conductive connector.

Conventionally, as shown in FIG. 8 and 9, a conductive connector has two terminals 50a and 50b, and a so-called jumper chip is formed by integrally connecting them with a bridge piece 50c. Yes (see, for example, Patent Document 1)
Japanese Utility Model Publication No. 6-58557

As another conductive connector, there is a so-called jumper wire in which two terminals are connected to each other by a flexible conductive wire made of a covered wire (for example, Patent Document 2). reference.)
JP-A-62-278777

  However, since the jumper chip 50 is a rigid body, for example, as shown in FIGS. 8 and 9, the conductive pattern (copper foil) 11 or land (hereinafter referred to as the conductive pattern 11) of the substrate 10 disposed in the housing 20 is included. .) Is joined to one terminal (board side terminal) 50a, and the other terminal (bus bar side terminal) 50b is joined to the bus bar 21 provided on the housing 20, the board 10 and the board 10 are subjected to thermal shock. Conductive pattern 11 provided on top, casing 20 on which substrate 10 is arranged, jumper chip 50, bus bar 21, joint portion (substrate-side joint portion) 12 for joining conductive pattern 11 and substrate-side terminal 50a, and bus bar 21 and bus bar Stress is generated due to the difference in the linear expansion coefficient of the joint portion (bus bar side joint portion) 22 that joins the side terminal 50b, but the stress applied to the substrate side joint portion 12 includes the substrate 10, the conductive pattern 11, the housing 20, Linear expansion coefficient of jumper chip 50 and bus bar side joint 22 Caused by the difference, the stress applied to the bus bar side joining portion 22, the bus bar 21, housing 20, jumper chip 50, caused by the difference in linear expansion coefficient between the substrate side joining portion 12. For this reason, stress concentration occurs in the board-side joint portion 12 or the bus bar-side joint portion 22 having the lowest mechanical strength, and when the joint portions 12 and 22 are cracked, there is a problem that the jumper chip 50 comes off. is there.

  On the other hand, the position of the board-side terminal 50a of the jumper chip 50 joined to the board 10 varies depending on the manufacturing variation of the board size and the conductive pattern (land) size and the position fluctuation when the board 10 is installed in the housing 20. In addition, the position of the bus bar side terminal 50b of the jumper chip 50 to be joined to the bus bar 21 provided in the housing 20 is different from the manufacturing variation of the bus bar 21 (the width thereof, etc.), and when the bus bar 21 is provided in the housing 20. Changes due to position variation. For this reason, in order to allow the above two variations, the shape of the jumper chip 50 must be changed as appropriate according to the connection conditions. However, it is practically impossible to change the design for each variation. Therefore, in practice, the conductive pattern (land) size, bus bar width, and the like must be wide enough with respect to the terminals of the jumper chip. In this case, however, there is a problem that the entire product becomes large.

  Further, in the jumper chip, when a design step is required between the conductive pattern (land) on the substrate and the bus bar on the housing, the jumper chip is likely to fall down in proportion to the step. In addition, when mounting using an automatic insertion machine, restrictions due to the shape of the jumper chip (for example, restrictions due to taping processing conditions) and restrictions due to the original performance of the automatic insertion machine (for example, automatic insertion machine sucks) There is a problem that the allowable range for the step is narrow.

  Similarly, jumper chips, when mounted using an automatic insertion machine, are subject to restrictions due to the shape of the jumper chip and restrictions due to the inherent performance of the automatic insertion machine. There is a problem that (distance) becomes short.

  In addition, since the terminals 50a and 50b and the bridge piece 50c are integral rigid bodies, the shape of the jumper chip 50 must be appropriately changed in design for each product or connection portion, and in terms of versatility. There is room for improvement.

  On the other hand, if a jumper wire having flexibility is used, the restriction on the level difference considering the thermal shock, the enlargement of the product, and the ease of falling at the time of mounting is improved, but in automating the mounting, In terms of limiting the level difference between the junctions, limiting the distance between the junctions, and versatility, there is still room for improvement, similar to the jumper chip.

  The problem to be solved by the present invention has been made in view of the above-mentioned facts, and is to provide a highly versatile conductive connector while improving the problems caused by jumper chips and jumper wires.

The present invention includes two terminals made of a conductive material and a flexible conductive wire that electrically connects the two terminals, and at least one of the terminals has a three-dimensional shape having a space inside. And a terminal having an opening through which the space and the outside pass through the three-dimensional wall surface, and one end of the conductive wire introduced through the opening into the space of the terminal. It provided the winding member made of a conductive material which has a rotatably supported by the body portion retaining the winding can be pulled out of the conductive wire around the body portion to the terminal along with being electrically connected This is a conductive connector.

  In the present invention, the winding member has a shaft portion integrally connected to the body portion, and is rotatably supported by the terminal via the shaft portion, and the terminal supports the shaft portion. It is preferable that the portion to be formed is a through hole.

  In the present invention, it is preferable to provide hook portions that are detachably engaged with each other.

  Furthermore, in the present invention, it is preferable that the terminal has a substantially hexahedron appearance shape formed by folding from a developed flat state.

  According to the present invention, when a thermal shock is applied, the stress transmitted from the two terminals is absorbed by the conductive wire, so that they do not interfere with each other. That is, for example, when one terminal (board side terminal) is joined to the conductive pattern (land) on the board arranged in the housing, and the other terminal (bus bar side terminal) is joined to the bus bar provided in the housing, When a thermal shock is applied, the stress applied to the bonding portion (substrate-side bonding portion) that bonds the conductive pattern (land) on the substrate and the substrate-side terminal is the conductive pattern (land) on the substrate and the substrate provided on the substrate. , A housing for arranging the board, a board-side terminal of the conductive connector according to the present invention, and a joint that joins the bus bar and the bus bar-side terminal only due to a stress caused by a difference in linear expansion coefficient of the board-side joint (bus bar side The stress applied to the joint portion is also only the stress caused by the difference in linear expansion coefficient between the bus bar, the housing, the bus bar side terminal of the conductive connector according to the present invention, and the bus bar side joint portion. For this reason, the stress which generate | occur | produces in the board | substrate side junction part and bus bar side junction part with the lowest mechanical strength reduces, and a thermal shock resistance improves.

  Further, according to the present invention, since the two terminals are connected by the conductive wire material, it is not necessary to consider the variation in the position where the terminals are joined. For this reason, the conductive pattern (land) size and bus bar width on the substrate can be minimized, and the entire product can be miniaturized.

  Furthermore, according to the present invention, when a design step is required between the two joints, the two terminals are connected by the conductive wire material, so that it is easy to fall down during mounting regardless of the step. In addition, the component stability at the time of mounting which is not affected by the step is obtained. In addition, according to the present invention, the allowable range of the step is limited only by the maximum length of the conductive wire, and when mounted using an automatic insertion machine, the limit due to the shape of the conductive connector according to the present invention (for example, , And restrictions due to taping processing conditions) and restrictions due to the inherent performance of the automatic insertion machine (for example, restrictions due to suction force performance when the automatic insertion machine uses suction force) are not affected. For this reason, it becomes possible to make the tolerance | permissible_range about a level | step difference wider.

  Similarly, according to the present invention, when mounting using an automatic insertion machine, the conductive property is not subject to the limitation due to the shape of the conductive connector according to the present invention or the limitation due to the original performance of the automatic insertion machine. Since it is limited only by the maximum length of the wire, the distance between the joints (distance between the terminals) can be increased.

  Moreover, according to the present invention, the length of the conductive wire can be adjusted by pulling out the conductive wire from the winding member provided on at least one of the terminals. It can be mounted according to the level difference or distance between different joints, a desired angle, etc., and is excellent in versatility.

  Therefore, according to the present invention, the problem caused by the jumper chip or the jumper wire is improved, so that the entire product can be reduced in size while being excellent in the thermal shock, and the restriction on the step and the distance between the joints is eased. It is possible to provide a highly versatile conductive connector.

  In the present invention, the winding member has a shaft portion that is integrally connected to the body portion, and is rotatably supported by the terminal through the shaft portion. If the part supporting the part is a through-hole that opens to the joint surface, the winding member in the terminal is fixed at the same time as the conductive adhesive is cured, so even when vibration is applied after mounting. The conductive wire is not loosened and stretched.

  Furthermore, according to the present invention, if each of the terminals is provided with a hook portion that is detachably engaged with each other, the two terminals are engaged with each other in a state before mounting to form a set of terminals. After a set of terminals is transported to one joint such as a conductive pattern (land) or a bus bar on the substrate and one terminal is mounted, if the other terminal is lifted, it is separated from the one terminal and the other terminal It can be conveyed to the joint. Thereby, after mounting one terminal, the other terminal can be mounted as it is. Therefore, according to the present invention, since the two terminals can be joined by a series of work, rather than being joined by separate and independent works, the mounting time can be shortened. In addition, if two terminals can be engaged with each other to form a set of terminals, each can be housed in a taping reel and can be easily separated, and an automatic insertion machine with a complicated structure should be used. In addition, it can be implemented with an existing automatic insertion machine.

  Further, in the present invention, if the terminal has a substantially hexahedron appearance shape formed by folding from a developed flat state, the problems caused by jumper chips and jumper wires are improved and highly versatile. A conductive connector can be provided relatively easily and inexpensively.

  Hereinafter, an embodiment of the present invention will be described in detail with reference to the drawings.

  FIG. 1 is a perspective view showing a conductive connector 100 according to the present invention.

Reference numeral 110 is a first terminal made of a conductive material, and reference numeral 120 is a second terminal made of a conductive material. The first terminal 110 and the second terminal 120 are composed of a pair of electrodes, and are formed of one or more conductive materials such as Al ₂ O ₃ and BeO. In addition, the first terminal 110 and the second terminal 120 can be plated with one or more conductive materials such as Sn and Au.

  Reference numeral 130 denotes a flexible wire harness (conductive wire) that connects the first terminal 110 and the second terminal 120. The wire harness 130 includes a conductive wire 131 formed of one or more conductive materials including Cu, Ag, Au, Al and others. Further, the wire harness 130 forms a coating 132 on the surface of the conductive wire 131 with one or more insulating materials including natural rubber, synthetic rubber, and other synthetic resins. However, the wire harness 130 may be used without forming the insulating coating 132.

  The first terminal 110 has a substantially hexahedral appearance formed by folding from a developed flat state. The first terminal 110 is in a deployed state before folding, and includes a bottom portion 111 having a joint surface, a front portion 112 that is integrally connected to the bottom portion 111 and stands up by bending from the bottom portion 111, and a position facing the front portion 112. The back surface portion 113 is integrally connected to the bottom portion 111 and rises by bending from the bottom portion 111, and the top surface portion is integrally connected to the back surface portion 113 and is disposed at a position facing the bottom portion 111 by bending from the back surface portion 113. 114 and a front hanging portion 115 that is integrally connected to the top surface portion 114 and hangs from the front surface portion 114 by bending from the top surface portion 114 so as to be aligned in a line on the same plane, and the bottom portion 111 Also on both sides, the side surface portion 116 that is integrally connected to the bottom portion 111 and stands up by bending from the bottom portion 111 is aligned in a row in the same plane as the previous portions 111 to 115 and perpendicular to the portions 111 to 115. Arrange to do.

  As a result, the first terminal 110 can be formed by folding from a state in which it is flatly developed, and a space R1 connected through the opening 117 is formed inside the first terminal 110, as shown in FIG. It is formed. Further, the front portion 112 is formed with a slit 112s cut out from the upper end thereof, and serves to position the harness 130 when the wire harness 130 is guided to the space R1 through the opening 117.

  One end 130a of the wire harness 130 is inserted into the space R1 from the slit 112s through the opening 117. FIG. 2 is a longitudinal sectional view of the first terminal 110.

  Reference numeral 140 has a cylindrical body portion 141 to which one end 130a of the wire harness 130 is connected by a bonding material B2, and a shaft portion 143 that is integrally connected to the body portion 141 via a flange portion 142. Cu, Au , Ag, Fe, etc., or a bobbin (winding member) made of two or more kinds of conductive materials. The shaft portion 143 is inserted into the support portions 111a and 114a formed on the bottom portion 111 and the top surface portion 114 of the first terminal 110 using the flange portion 142 as a positioning element, and the body portion 141 is connected to the first terminal 110 via the shaft portion 143. It is supported rotatably. As a result, the bobbin 140 can be stored in a state where the wire harness 130 is rewound and held in the space 112 of the first terminal 110.

  The support part 111a that supports one of the shaft parts 143 of the bobbin 140 is a through hole that penetrates the bottom part 111. On the other hand, the support portion 114b that supports the other of the shaft portions 143 of the bobbin 140 is a recess formed inside the top surface portion 114. The support portion 114a may be a through hole that penetrates the top wall 114.

  As shown in FIG. 1, the second terminal 120 also has a substantially hexahedron appearance shape formed by folding from a developed flat state. In the unfolded state before the second terminal 120 is folded, the bottom part 121 having a joint surface, the back part 123 integrally connected to the bottom part 121 and standing up by bending from the bottom part 121, and the back part 123 are integrally connected. The top surface portion 124 disposed at a position facing the bottom portion 111 by bending from the back surface portion 123, and connected to the top surface portion 124 integrally with the top surface portion 124 and facing the back surface portion 123 by bending from the top surface portion 124. The front part 122 depending on the position of the top surface 124 is arranged so as to be aligned in a line on the same plane, and the top surface part 124 is integrally connected to the top surface part 124 on both sides of the top surface part 124 by being bent from the top surface part 124. The side portions 126 are arranged so as to be aligned in a row in the direction orthogonal to the portions 121 to 124 on the same plane as the previous portions 121 to 124.

  As a result, the second terminal 120 can be formed by folding from a flatly developed state, and a space 127 connected through the opening 121 is also formed inside thereof. Further, the front portion 122 is formed with a slit 122s cut out from the lower end thereof, and serves to position the harness 130 when the wire harness 130 is guided to the space R2 through the opening 127.

  As shown by the phantom line in FIG. 1, the other end 130b of the wire harness 130 is inserted into the space R2 through the opening 127 through the slit 122s and joined to the back surface of the top wall 124 by the joining material B2. As the joining material B2 for joining both ends 130a and 130b of the wire harness 130, eutectic, lead-free, and other solder materials including others can be used, and ultrasonic welding and spot welding can be used as an alternative to the joining material B2. Laser welding, bonding with a conductive adhesive, and other connection methods can also be used.

  The front portion 112 provided on the first terminal 110 forms an opening 117 by being spaced from the front end of the top surface portion 114, and the front portion 122 provided on the second terminal 120 is connected to the front end of the bottom portion 121. An opening 127 is formed by providing a gap between them. Thus, the front portions 112 and 122 are engaged with each other when the second terminal 120 is inserted in an offset state from above the first terminal 110 to form a pair of terminals (one assembly) including the two terminals 110 and 120, Further, when the second terminal 120 is pulled up from above the first terminal 110 with a predetermined force to release the mutual engagement, a hook portion that can be separated from one assembly into the two terminals 110 and 120 is formed. In addition, as predetermined force here, when engagement of the terminals 110 and 120 is fitting, for example, it means force larger than the fitting force.

  3 and 4 are a perspective view and a longitudinal sectional view illustrating a state where the conductive connector 100 is mounted, respectively.

  Reference numeral 10 denotes a circuit board on which a conductive pattern (including lands) 11 is formed. The circuit board 10 may be mounted with a plurality of surface mount components such as capacitors and resistors, or may not be mounted with a surface mount component. Reference numeral 20 denotes a housing in which the circuit board 10 is incorporated and held. As shown in FIG. 4, a bus bar 21 for supplying power is provided in the housing 20 at a position higher than the substrate 10. The bus bar 21 extends into a slot S formed in the housing 20 and is connected to a power connector (not shown).

  The conductive connector 100 uses the bonding material B1 to bond the first terminal 110 with the conductive pattern 11 on the circuit board 10 as the first electrode, and similarly uses the bonding material B1 to connect the bus bar 21 to the power source as the second electrode. The second terminal 120 is joined. Examples of the bonding material B1 include a conductive adhesive typified by silver paste, and a bonding portion (substrate-side bonding portion) made of the conductive adhesive B1 between the substrate 10 and the first terminal 110. 12 is formed, and a joining portion made of the conductive adhesive B1 is formed between the bus bar 21 and the second terminal 120.

  According to the conductive connector 100, when a thermal shock is applied to the product, the linear expansion coefficient of the substrate 10, the conductive pattern 11, the substrate side joint 12, the housing 20, the conductive connector 100, the bus bar 21, and the bus bar side joint 22 Although a stress is generated due to the difference, the stress transmitted from the two terminals is absorbed by the wire harness 130 and thus does not interfere with each other.

  That is, when a thermal shock is applied, the stress applied to the board-side joint 12 is due to the difference in linear expansion coefficient between the board 10, the conductive pattern 11, the housing 20, the first terminal 110 of the conductive connector 100, and the board-side joint 12. This is only the stress generated, and the stress applied to the bus bar side joint portion 12 is also only the stress generated by the difference in linear expansion coefficient between the bus bar 21, the housing 20, and the second terminal 120 of the conductive connector 100. For this reason, the stress generated in the substrate side joint 12 and the bus bar side joint 22 having the lowest mechanical strength is reduced, and the thermal shock resistance is improved.

  Further, according to the conductive connector 100, since the two terminals 110.120 are connected by the wire harness 130, there is no need to consider variation in the position where the terminals 110.120 are joined. Therefore, the size of the conductive pattern (land) on the substrate 10 and the bus bar width can be minimized, and the entire product can be downsized.

  Further, according to the conductive connector 100, when a step is required in design between the board side joint 12 and the bus bar side joint 22, as shown in FIGS. Since they are connected, they do not easily fall down during mounting regardless of the level difference, and component stability during mounting that is not affected by the level difference can be obtained. In addition, according to the conductive connector 100, the allowable range of the step is limited only by the maximum length of the wire harness 130, and when mounted using an automatic insertion machine, the limit due to the shape of the conductive connector 100 (for example, taping) (Restriction due to processing conditions) and restrictions due to the original performance of the automatic insertion machine (for example, restriction due to suction force performance when the automatic insertion machine uses suction force) are not affected. For this reason, it becomes possible to make the tolerance | permissible_range about a level | step difference wider.

  Similarly, according to the conductive connector 100, when mounting using an automatic insertion machine, the wire harness 130 is not subject to limitations due to the shape of the conductive connector 100 or restrictions inherent to the performance of the automatic insertion machine. Since it is limited only by the maximum length, the distance between the board side joint 12 and the bus bar side joint 22 (distance between the terminals 110 and 120) can be increased.

  Moreover, according to the conductive connector 100, the length of the wire harness 130 can be adjusted by pulling the wire harness 130 from the winding member 140 provided on the first terminal 110. It can be mounted in accordance with the level difference, distance, desired angle, etc. between the board side joint 12 and the bus bar side joint 22 which are different for each part, and is excellent in versatility.

  Therefore, according to the conductive connector 100, the problem caused by the jumper chip or the jumper wire is improved, so that the overall product can be reduced in size while being excellent in thermal shock, and the board side joint 12 and the bus bar side joint It is possible to provide a highly versatile conductive connector in which the restriction on the level difference and distance between 22 is relaxed.

  Further, in the conductive connector 100, the winding member 140 has a shaft portion 143 integrally connected to the body portion 141, and is rotatably supported by the first terminal 110 via the shaft portion 143. Since the portion 111a of the one terminal 110 that supports the shaft portion 143 is a through-hole that opens to the board-side bonding surface 111f, the winding member 140 in the first terminal 110 is simultaneously cured with the conductive adhesive B1. Since it is fixed, even when vibration is applied after mounting, the lead does not loosen and stretch.

  Furthermore, with reference to FIGS. 5-7, the mounting method at the time of using an automatic insertion machine is demonstrated in detail as an example of the mounting method of the electrically conductive connector 100. FIG. In the following description, the same parts as those in FIGS.

  FIG. 5 is a perspective view showing a state in which the conductive connector 100 as one assembly is housed in a taping reel for supplying mounting parts to the automatic insertion machine, and FIGS. It is a schematic cross section explaining the process of mounting on a board | substrate, and a schematic cross section explaining the process of mounting a 2nd terminal in a bus bar.

  In FIG. 5, reference numeral 30 denotes a taping reel having a strip shape and having a plurality of concave storage portions 31 along the longitudinal direction thereof. In the concave storage portion 31, the conductive connector 100 is stored in a state where the terminals 110 and 120 are engaged with each other to form one assembly. Normally, the taping reel 30 is sealed with a band-shaped film material (not shown) for each opening of the concave storage portion 31, and the conductive connector 100 is packed so as not to drop off.

  Reference numeral 40 denotes a nozzle of an automatic insertion machine. The nozzle 40 is, for example, connected to a vacuum pump or the like, and can adsorb the component by using the suction force generated by the negative pressure, and the state of holding the component by adjusting the suction force The parts can be separated after being conveyed to a predetermined position.

  In mounting the conductive connector, first, as shown in FIG. 5, the nozzle 40 is moved down to the concave storage portion 31 of the taping reel 30 and brought into contact with the first terminal 110 in the portion of the conductive connector 100. Since the first terminal 110 is engaged with the second terminal 120 from below, when the first terminal 110 is lifted by using the suction force of the nozzle 40, the second terminal 120 is also integrally formed as one assembly. To rise.

  Next, when the nozzle 40 is moved to the conductive pattern 11 on the substrate 10, the conductive connector 100 is moved to the conductive pattern 11 as one assembly. Therefore, if the bonding surface 111f of the bottom 111 of the first terminal 110 is positioned on the conductive adhesive B1 disposed on the conductive pattern 11 and the nozzle 40 is lowered as it is, as shown by the solid line in FIG. Only the first terminal 110 can be mounted on the substrate 10. In other words, according to the conductive connector 100, the first terminal 110 and the second terminal 120 can be attracted separately from the first terminal on the substrate 10 by one operation from the taping reel 30 without providing two nozzles. 110 can be implemented.

  When the mounting of the first terminal 110 is completed, the suction of the nozzle 40 is released to make the nozzle 40 free, and then the nozzle 40 is moved to the second terminal 120 as shown by the broken line in FIG. Adsorb 120. When the second terminal 120 is lifted, since the second terminal 120 is engaged from the upper side of the first terminal 110, it can be easily separated as shown by a broken line in FIG.

  Next, when the nozzle 40 is moved to the bus bar 21 on the housing 20, only the second terminal 120 moves to the bus bar 21. For this reason, if the joining surface 121f of the bottom 121 of the second terminal 120 is positioned on the conductive adhesive B1 disposed on the bus bar 21 and the nozzle 40 is lowered as it is, as shown by the solid line in FIG. Only the two terminals 120 can be mounted on the bus bar 21. That is, according to the conductive connector 100, the second terminal 120 can be mounted on the bus bar 21 without performing a special operation in order to separate the first terminal 110 and the second terminal 120.

  That is, according to the conductive connector 100, the hook portions 112 and 122 that are detachably engaged with the first terminal 110 and the second terminal 120 by moving up and down along the direction orthogonal to the joint surfaces 111f and 121f, respectively. In the state before mounting, the two terminals 110 and 120 are engaged with each other to form a set of terminals, and the set of terminals is conveyed to the joint 12 of the substrate 10 to mount the first terminal 110. After that, when the second terminal 120 is lifted, the second terminal 120 can be separated from the first terminal 110 and transported to the other joining portion 22. Thereby, after mounting the first terminal 110, the second terminal 120 can be mounted as it is.

  Therefore, according to the conductive connector 100, the two terminals 110 and 120 can be joined by a series of work, rather than being joined by separate and independent operations, so that the mounting time can be shortened. In addition, if the two terminals 110 and 120 can be engaged with each other to form a pair of terminals, each can be housed in the taping reel 30 and can be easily separated. Without using it, it is possible to implement with an existing automatic insertion machine.

  In addition, according to the conductive connector 100, each of the first terminal 110 and the second terminal 120 has a substantially hexahedron appearance formed by folding from a developed flat state. Therefore, it is possible to provide a highly versatile conductive connector with improved problems caused by the above, relatively easily and inexpensively.

  The above description exemplifies a preferred embodiment of the present invention, but various modifications can be made by those skilled in the art within the scope of the claims. For example, in the above description, since the second terminal 120 is engaged from the upper side of the first terminal 110, the first terminal 110 is first bonded to the substrate 10 having a height lower than the bus bar 21, but 2 The current-carrying sites (conductive pattern (including lands) and bus bars) where the two terminals 110 and 120 are joined may be reversed. In addition, according to the present invention, the front surface portion 112 of the first terminal 110 may be raised from being folded, and the front surface portion 122 of the second terminal 120 may be suspended from the folding to form a hook portion. Furthermore, according to the present invention, the second terminal 120 can be replaced with the first terminal 110.

  The present invention can be applied to a control unit or the like built in a control device for an automatic transmission employed in a vehicle or the like.

1 is a perspective view showing a conductive connector according to the present invention. It is a longitudinal cross-sectional view which shows the 1st terminal of the said conductive connector. It is a perspective view which illustrates the state where the above-mentioned conductive connector was mounted. It is a longitudinal cross-sectional view which illustrates the state which mounted the said conductive connector. FIG. 3 is a perspective view showing the conductive connector as one assembly stored in a taping reel for supplying mounting parts to an automatic insertion machine. It is a schematic cross section explaining the process of mounting the first terminal of the conductive connector on a substrate. It is a schematic cross section explaining the process of mounting the second terminal of the conductive connector on the bus bar. It is a perspective view which illustrates the state where the conventional jumper chip was mounted. It is a longitudinal cross-sectional view which illustrates the state which mounted the conventional jumper chip.

Explanation of symbols

10 Board
11 Conductive pattern
12 Board side joint
20 enclosure
21 Busbar
22 Busbar side joint
100 Conductive connector
110 Terminal 1
111 Bottom
111a Support (through hole)
112 Front
112s slit
117 opening
120 Second terminal
122 Front
122s slit
130 Wire harness (conductive wire)
131 conductor
132 Insulation coating
140 Bobbin (winding member)
141 Torso
142 Flange
143 Shaft R1 space R2 space

Claims (4)

Two terminals made of a conductive material, and a flexible conductive wire that electrically connects the two terminals,
At least one of the terminals is a terminal formed in a three-dimensional shape having a space inside, and an opening through which the space and the outside world are formed on a wall surface of the three-dimensional shape, and in the space of the terminal , can pull the conductive wire has a body portion rotatably supported by the pin one end of a conductive wire is introduced through the opening they are electrically connected around the barrel A conductive connector comprising a winding member made of a conductive material to be wound and held. The winding member has a shaft portion integrally connected to the body portion, and is rotatably supported by the terminal via the shaft portion,
The conductive connector according to claim 1, wherein the terminal has a portion that supports the shaft portion as a through hole.   The conductive connector according to claim 1, wherein hooks that are detachably engaged with each other are provided on the terminals. 4. The conductive connector according to claim 1, wherein the terminal has a substantially hexahedron external shape formed by folding from a developed flat state. 5.

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