WO2018037965A1 - Position detecting device, and method of manufacturing position detecting device - Google Patents

Abstract

This position detecting device is provided with an IC package (10), a first terminal line (21), a ground terminal line (22), a power source terminal line (23), a second terminal line (24), a bypass terminal line (25), motor terminal lines (28, 29), and a connector portion (31). The bypass terminal line is positioned on the opposite side to the ground terminal line as seen from the first terminal line or the second terminal line, and is formed in such a way as to be connected to a bypass portion (222) of the ground terminal line, the bypass portion being connected to a ground connecting portion on a first direction side of said ground connecting portion. The connector portion is provided, in this order, with motor terminal line end portions (283, 293), a bypass terminal line end portion on the opposite side to the side connected to the bypass portion, a second terminal line end portion (243), a power source terminal line end portion (233), and a first terminal line end portion (213).

Description

POSITION DETECTION DEVICE AND METHOD FOR MANUFACTURING POSITION DETECTION DEVICE Cross-reference of related applications

This application is based on Patent Application No. 2016-162956 filed on August 23, 2016 and Patent Application No. 2017-106790 filed on May 30, 2017, the contents of which are described herein. Is used.

The present disclosure relates to a position detection device and a method for manufacturing the position detection device.

Conventionally, there has been known a position detection device that can detect a position of a detection target that moves relative to a reference member using magnetic flux generation means such as a magnet. For example, Patent Document 1 discloses an IC package having two magnetic detection elements that can detect a change in a magnetic field accompanying rotation of a detection target, a sensor terminal that can be electrically connected to the IC package, and a rotation that can rotate the detection target. A position detection device is described that includes a motor terminal that can supply power to a motor that outputs torque, and a connector portion that can be assembled with a sensor terminal and an external terminal that can be electrically connected to the motor terminal.

Japanese Patent Laying-Open No. 2015-225006

In the position detection device described in Patent Document 1, the sensor terminal includes two signal terminal lines that can be electrically connected to each of the two magnetic detection elements, a power supply terminal line through which current flows to the two magnetic detection elements, And it has a ground terminal line which sends the electric current which flowed through two magnetic detection elements to a ground. In the position detection device described in Patent Document 1, the sensor terminal in the connector is provided so that one of the two signal terminal lines, the ground terminal line, the power supply terminal line, and the other of the two signal terminal lines are arranged in this order. It has been. For this reason, in the connector part, since the motor terminal is provided adjacent to one of the two signal terminal lines, a short circuit may occur between the motor terminal and the signal terminal line. Further, since a magnetic field is formed around the motor terminal by the current flowing through the motor terminal, there is a possibility that the signal passing through the signal terminal line includes noise. For this reason, the detection accuracy of the position of the detection target in the position detection device decreases.

An object of the present disclosure is to provide a position detection device that can prevent a short circuit of a terminal.

A position detection device capable of detecting the position of a detection target according to the first aspect of the present disclosure includes an IC package, a first terminal line, a ground terminal line, a power supply terminal line, a second terminal line, a bypass terminal line, a motor terminal line, And a connector part is provided.
The IC package includes a first magnetic detection element, a second magnetic detection element, a sealing portion, a first lead wire, a ground lead wire, a power supply lead wire, and a second lead wire. The first magnetic detection element can output a signal corresponding to the first component of the surrounding magnetic field or the strength of the first component. The second magnetic detection element can output a second component different from the first component of the surrounding magnetic field or a signal corresponding to the strength of the second component. The sealing unit seals the first magnetic detection element and the second magnetic detection element. The first lead wire protrudes from the sealing portion in the first direction and can output the first signal output from the first magnetic detection element to the outside. The ground lead wire protrudes from the sealing portion in the first direction and allows a current flowing through the first magnetic detection element and the second magnetic detection element to flow to the ground. The power supply lead wire protrudes from the sealing portion in the first direction, and a current flows toward the first magnetic detection element and the second magnetic detection element. The second lead wire protrudes from the sealing portion in the first direction and can output a second signal output from the second magnetic detection element to the outside. The ground lead wire and the power supply lead wire are provided between the first lead wire and the second lead wire.
The first terminal line is formed to extend in a direction opposite to the first direction from a first connection portion that can be electrically connected to the first lead wire.
The ground terminal line is formed so that it can be electrically connected to the ground lead wire, and the ground connection part is formed to extend in a direction different from the first direction and is connected to the ground connection part on the first direction side of the ground connection part. A detour unit connected to
The power supply terminal line is formed to extend in a direction opposite to the first direction from a power supply connection portion that can be electrically connected to the power supply lead wire.
The second terminal line is formed to extend in a direction opposite to the first direction from a second connection portion that can be electrically connected to the second lead wire.
The bypass terminal line is located on the opposite side of the first terminal line or the second terminal line from the ground terminal line, and is formed to be connected to the bypass part.
The motor terminal line is electrically connected at one end to a motor that can rotate the detection target, and can supply power to the motor.
The connector part is the other end part of the motor terminal line, the end part opposite to the side connected to the bypass part of the bypass terminal line, the end part opposite to the second connection part of the second terminal line, the power source The terminal line is provided in the order of the end on the side opposite to the power supply connection part and the end on the side opposite to the first connection part of the first terminal line.

In the position detection device according to the first aspect of the present disclosure, the ground terminal line has a detour portion connected to the ground connection portion on the first direction side of the ground connection portion. The detour part is connected to a detour terminal line located on the opposite side of the ground terminal line from the first terminal line or the second terminal line. Thereby, the arrangement of the four terminal lines in the connector portion can be a bypass terminal line, a second terminal line, a power supply terminal line, and a first terminal line connected to the ground terminal line. Therefore, when the four terminal lines and the motor terminal line are arranged in the connector portion, the detouring terminal line can be arranged next to the motor terminal wire, so that a short circuit of the terminal in the connector portion can be prevented.
Further, the first terminal line and the second terminal line are provided at positions relatively distant from the motor terminal line. Thereby, even if a magnetic field is formed by the current flowing through the motor terminal line, the noise included in the signals flowing through the first terminal line and the second terminal line can be made relatively small. Therefore, the detection accuracy of the position of the detection target can be improved.

Moreover, the manufacturing method of the position detection apparatus according to the second aspect of the present disclosure includes a terminal prototype forming process and a cutting process.
In the terminal prototype molding process, the part to be the first connection part, the part to be the ground connection part, the part to be the power supply connection part, the part to be the second connection part, the part to be the detour terminal line, and the ground connection part Connected to the part to be the first connection part, the part to be the ground connection part, the part to be the power connection part, the part to be the second connection part, and the part to be the detour terminal line The diver to be molded is integrally formed as a prototype of the sensor terminal.
After the terminal prototype forming process, in the cutting process, the part that becomes the diver and the first connection part, the part that becomes the diver and the power supply connection part, and the part that becomes the diver and the second connection part are cut.

In the manufacturing method of the position detection device according to the second aspect of the present disclosure, when the prototype of the sensor terminal is processed into the sensor terminal, the part that becomes the diver and the first connection part, the part that becomes the diver and the power supply connection part, and the diver While the part to be the second connection part is cut, the diver and the ground connection part and the diver and the detour terminal line remain connected. Thereby, the connector part which can arrange | position the detouring terminal wire electrically connected with the ground lead wire next to the motor terminal wire can be easily formed.

Further, the position detection device capable of detecting the position of the detection target according to the third aspect of the present disclosure includes an IC package, a first terminal line, a ground terminal line, a power supply terminal line, a dummy terminal line, a motor terminal line, and a connector unit. Is provided.
The IC package has a magnetic detection element, a sealing portion, a signal lead wire, a ground lead wire, a power supply lead wire, and a dummy lead wire. The dummy lead wire protrudes from the sealing portion in the first direction and is not electrically connected to the magnetic detection element. In the IC package, the ground lead wire and the power supply lead wire are provided between the signal lead wire and the dummy lead wire.
The ground terminal line is formed so that it can be electrically connected to the ground lead wire, and the ground connection part is formed to extend in a direction different from the first direction and is connected to the ground connection part on the first direction side of the ground connection part. A detour unit connected to
The dummy terminal line is provided on the opposite side of the signal terminal line from the ground terminal line. The dummy terminal line is formed so as to extend in a direction opposite to the first direction from the dummy connection portion connectable to the bypass portion and the dummy lead wire.
The connector part is the other end of the motor terminal line, the end opposite to the side connected to the detour part of the dummy terminal line, the end opposite to the power connection part of the power terminal line, or the ground terminal line. Either the end on the side opposite to the bypass side, the end on the side opposite to the power supply connection of the power terminal line or the other end on the side opposite to the bypass side of the ground terminal line, signal They are provided in the order of the end of the terminal line opposite to the signal connection.

In the position detection device according to the third aspect of the present disclosure, the bypass portion of the ground terminal line is connected to a dummy terminal line provided on the side opposite to the signal terminal line as viewed from the ground terminal line. Thereby, in the connector part, the ground terminal wire electrically connected to the ground lead wire can be arranged next to the motor terminal wire. Thereby, the short circuit of the terminal in a connector part can be prevented.
Further, since the signal terminal line is provided at a position relatively distant from the motor terminal line, noise included in the signal flowing through the signal terminal line can be relatively reduced. Therefore, the detection accuracy of the position of the detection target can be improved.

Moreover, the manufacturing method of the position detection apparatus according to the fourth aspect of the present disclosure includes a terminal prototype forming process and a cutting process.
In the terminal prototype forming process, the signal is connected at the first direction side of the part to be the signal connection part, the part to be the ground connection part, the part to be the power supply connection part, the part to be the dummy connection part, and the part to be the ground connection part. A diver connected to a part to be a connection part, a part to be a ground connection part, a part to be a power supply connection part, and a part to be a dummy connection part is integrally formed as a prototype of the sensor terminal.
After the terminal prototype forming process, in the cutting process, the part that becomes the diver and the signal connection part and the part that becomes the diver and the power connection part are cut.

In the manufacturing method of the position detection device according to the fourth aspect of the present disclosure, when the prototype of the sensor terminal is processed into the sensor terminal, the part that becomes the diver and the signal connection part and the part that becomes the diver and the power supply connection part are cut. On the other hand, the diver and the ground connection part and the diver and the dummy terminal line remain connected. Thereby, the connector part which can arrange | position the dummy terminal wire electrically connected with the ground lead wire next to the motor terminal wire can be easily formed.

The above object and other objects, features, and advantages of the present disclosure will become more apparent by the following detailed technique with reference to the accompanying drawings. The drawing
FIG. 1 is a schematic diagram of an electronically controlled throttle device to which a position detection device according to a first embodiment of the present disclosure is applied. FIG. 2 is a schematic diagram of a position detection device according to the first embodiment of the present disclosure. FIG. 3A is a schematic diagram illustrating a method for manufacturing the position detection device according to the first embodiment of the present disclosure; FIG. 3B is a schematic diagram different from FIG. 3A for explaining the manufacturing method of the position detection device according to the first embodiment of the present disclosure; FIG. 4A is a schematic diagram illustrating the effect of the position detection device according to the first embodiment of the present disclosure. FIG. 4B is a schematic diagram illustrating a position detection device of a comparative example. FIG. 5 is a schematic diagram of a position detection device according to the second embodiment of the present disclosure. FIG. 6 is a schematic diagram of an electronically controlled throttle device to which the position detection device according to the third embodiment of the present disclosure is applied. FIG. 7A is a schematic diagram of a position detection device according to a third embodiment of the present disclosure; FIG. 7B is a schematic diagram of a position detection device according to a third embodiment of the present disclosure; FIG. 8 is a schematic diagram of a position detection device according to the fourth embodiment of the present disclosure, FIG. 9 is a schematic diagram of a position detection device according to another embodiment of the present disclosure, FIG. 10 is a schematic diagram of a position detection device according to another embodiment of the present disclosure.

Hereinafter, a plurality of embodiments of the present disclosure will be described with reference to the drawings. Note that, in a plurality of embodiments, substantially the same components are denoted by the same reference numerals, and description thereof is omitted.

(First embodiment)
A position detection apparatus according to the first embodiment will be described with reference to FIGS. 1, 2, 3, 4A, and 4B. The rotation angle detection device 1 as a “position detection device” according to the first embodiment is used in an electronically controlled throttle device 80 that controls an intake air amount to an engine mounted on a vehicle (not shown).

First, the configuration of the electronic control throttle device 80 will be described. As shown in FIG. 1, the electronic control throttle device 80 includes a valve housing 81, a throttle valve 82, a motor 83, a rotation angle detection device 1, an electronic control unit (hereinafter referred to as “ECU”) 84, and the like.

The valve housing 81 has an intake passage 810 for introducing air into the engine. A throttle valve 82 is provided in the intake passage 810.

The throttle valve 82 includes a valve member 821 as a “detection target” and a valve shaft 822.
The valve member 821 is a substantially disk-shaped member having an outer diameter slightly smaller than the inner diameter of the intake passage 810. The valve member 821 is fixed to the valve shaft 822.
Both sides of the valve shaft 822 are rotatably supported by the valve housing 81. As a result, the valve member 821 can rotate about the rotation axis CA1 of the valve shaft 822 as the rotation axis. A magnet 823 is provided at the end of the valve shaft 822 on the rotation angle detection device 1 side. When the valve shaft 822 rotates, the magnetic field in the vicinity of the IC package 10 included in the rotation angle detection device 1 changes.

The motor 83 is accommodated in the rotation angle detection device 1. The motor 83 is connected to the valve shaft 822 via a connecting member 831. The motor 83 generates a rotational torque that can rotate the valve shaft 822. The motor 83 is electrically connected to the ECU 84.

The ECU 84 is a small computer having a CPU as calculation means, ROM and RAM as storage means, and input / output means. The ECU 84 determines the opening degree of the throttle valve 82 according to the traveling state of the vehicle on which the electronic control throttle device 80 is mounted and the operation state of the driver of the vehicle. The ECU 84 outputs electric power to the motor 83 in accordance with the opening degree of the throttle valve 82. Thereby, the opening degree of the throttle valve 82 is controlled, and the intake air amount supplied to the engine is adjusted.

The rotation angle detection device 1 includes an IC package 10, a sensor terminal 20, a motor terminal 27, and a sensor housing 30 as a “housing”. The rotation angle detection device 1 is provided in the valve housing 81 on the end side where the magnet 823 of the valve shaft 822 is provided. In FIG. 2, the sensor housing 30 is indicated by a dotted line, and the shape and arrangement of the IC package 10, the sensor terminal 20, and the motor terminal 27 are schematically shown.

The IC package 10 is an IC package of a type called a two-system output type, a two-output type or the like, and includes a first magnetic detection element 11, a first signal processing circuit 110, a second magnetic detection element 12, and a second signal processing circuit. 120, a sealing portion 13, a first lead wire 16, a ground lead wire 17, a power supply lead wire 18, and a second lead wire 19. The IC package 10 is provided in the vicinity of the magnet 823 on the rotation axis CA1, as shown in FIG.

The first magnetic detection element 11 can output the first signal corresponding to the first component of the magnetic field formed by the magnet 823 or the strength of the first component. The first magnetic detection element 11 is electrically connected to the power supply lead 18, the ground lead 17 and the first signal processing circuit 110.

The first signal processing circuit 110 is electrically connected to the first lead wire 16. The first signal processing circuit 110 processes the first signal output from the first magnetic detection element 11.

The second magnetic detection element 12 can output a second component different from the first component of the magnetic field formed by the magnet 823 or a second signal corresponding to the strength of the second component. The second magnetic detection element 12 is electrically connected to the power supply lead 18, the ground lead 17 and the second signal processing circuit 120.

The second signal processing circuit 120 is electrically connected to the second lead wire 19. The second signal processing circuit 120 processes the second signal output from the second magnetic detection element 12.

The sealing portion 13 is for sealing the first magnetic detection element 11, the first signal processing circuit 110, the second magnetic detection element 12, and the second signal processing circuit 120, and is formed in a substantially rectangular parallelepiped shape. ing.

The first lead wire 16 is formed so as to protrude from the one surface 131 of the sealing portion 13 in a direction substantially perpendicular to the rotation axis CA1. The first lead wire 16 can output the first signal output from the first signal processing circuit 110 to the outside.

Here, in order to explain the shape and arrangement of the IC package 10, the sensor terminal 20, and the motor terminal 27 for convenience, a coordinate plane is set in FIG. The axis parallel to the direction in which the first lead wire 16 projects is the x-axis, and the direction in which the first lead wire 16 projects is the minus direction of the x-axis. That is, the first lead wire 16 protrudes from the one surface 131 in the negative direction of the x axis as the “first direction”. An axis perpendicular to the x axis and perpendicular to the rotation axis CA1 is defined as a y axis. In addition, an axis perpendicular to the x-axis and the y-axis is taken as a z-axis.

The ground lead wire 17 is formed so as to protrude from the one surface 131 of the sealing portion 13 in the negative direction of the x-axis. The ground lead wire 17 causes the current flowing through the first magnetic detection element 11 and the second magnetic detection element 12 to flow to the ground.

The power supply lead 18 is formed so as to protrude from the one surface 131 of the sealing portion 13 in the minus direction of the x axis. A current flowing from the power source (not shown) toward the first magnetic detection element 11 and the second magnetic detection element 12 flows through the power supply lead 18.

The second lead wire 19 is formed so as to protrude in the minus direction of the x-axis from the one surface 131 of the sealing portion 13. The second lead wire 19 can output the second signal output from the second signal processing circuit 120 to the outside.

In the IC package 10 of the first embodiment, the first lead wire 16, the ground lead wire 17, the power supply lead wire 18, and the second lead wire 19 are arranged in this order from the positive side to the negative side of the y-axis. They are arranged to protrude in the negative direction.

The sensor terminal 20 includes a first terminal line 21, a ground terminal line 22, a power supply terminal line 23, a second terminal line 24, and a bypass terminal line 25. The sensor terminal 20 is a member having a relatively large conductivity formed so as to extend from the vicinity of the first lead wire 16 or the like to the connector portion 31 included in the sensor housing 30 through the side opposite to the magnet 823 of the IC package 10. is there. The sensor terminal 20 is integrated with the sensor housing 30 by insert molding of the sensor housing 30 (see FIG. 1).

The first terminal wire 21 includes a first welding terminal 211 as a “first connection portion”, a first insert portion 212, and a “first end portion of the first terminal wire opposite to the first connection portion”. One connector terminal 213 is provided.
The first welding terminal 211 is provided at a position where it can be welded to the first lead wire 16. The first welding terminal 211 is formed so as to extend in the plus direction of the x axis as the “direction opposite to the first direction” from the end of the first terminal wire 21. A side of the first welding terminal 211 opposite to the end of the first terminal wire 21 is connected to the first insert portion 212.
The first insert portion 212 is inserted into the sensor housing 30. The first insert portion 212 is formed so as to pass through the opposite side of the IC package 10 from the magnet 823, extend in the positive direction of the y-axis, and then extend in the negative direction of the x-axis. The side of the first insert portion 212 opposite to the side connected to the first welding terminal 211 is connected to the first connector terminal 213.
The first connector terminal 213 is located in the connector part 31. The first connector terminal 213 is formed so as to be electrically connected to the ECU 84 via an external connector. The first terminal line 21 outputs the first signal output from the first signal processing circuit 110 to the ECU 84.

The ground terminal line 22 has a ground welding terminal 221 as a “ground connection part” and a bypass part 222.

The ground welding terminal 221 is provided at a position where it can be welded to the ground lead wire 17. The ground welding terminal 221 is formed to extend in the minus direction of the x axis from the end of the ground terminal wire 22. That is, the ground welding terminal 221 is formed to extend in the direction opposite to the first welding terminal 211. The side of the ground welding terminal 221 opposite to the end of the ground terminal line 22 is connected to the detour portion 222.

The detour portion 222 is formed to extend in the y direction as “a direction different from the first direction”. The bypass portion 222 is located in the negative direction of the x axis of the first welding terminal 211, the ground welding terminal 221, the power welding terminal 231 of the power terminal wire 23, and the second welding terminal 241 of the second terminal wire 24. The bypass portion 222 is connected to the ground welding terminal 221 on the positive side of the x axis. The end of the detour portion 222 on the negative direction side of the y axis is connected to the detour terminal line 25.

The power supply terminal line 23 includes a power supply welding terminal 231 as a “power supply connection portion”, a power supply insert portion 232, and a power supply connector terminal 233 as an “end of the power supply terminal line opposite to the power supply connection portion”.
The power welding terminal 231 is provided at a position where it can be welded to the power lead 18. The power welding terminal 231 is formed so as to extend in the positive direction of the x axis from the end of the power terminal wire 23. The side of the power welding terminal 231 opposite to the end of the power terminal line 23 is connected to the power insert portion 232.
The power supply insert portion 232 is inserted into the sensor housing 30. The power supply insert portion 232 passes through the opposite side of the IC package 10 from the magnet 823, extends in the positive direction of the y-axis, and then extends in the negative direction of the x-axis. The side of the power supply insert portion 232 opposite to the side connected to the power welding terminal 231 is connected to the power connector terminal 233.
The power connector terminal 233 is located in the connector part 31. The power connector terminal 233 is formed so as to be electrically connectable to a power source (not shown) via an external connector (not shown). A current flowing from the power source to the first magnetic detection element 11 and the second magnetic detection element 12 flows through the power supply terminal line 23.

The second terminal wire 24 includes a second welding terminal 241 as a “second connection portion”, a second insert portion 242, and a “second end portion of the second terminal wire opposite to the second connection portion”. Two connector terminals 243 are provided.
The second welding terminal 241 is provided at a position where it can be welded to the second lead wire 19. The second welding terminal 241 is formed to extend in the positive direction of the x axis from the end of the second terminal wire 24. A side of the second welding terminal 241 opposite to the end of the second terminal wire 24 is connected to the second insert portion 242.
The second insert portion 242 is inserted into the sensor housing 30. The second insert portion 242 passes through the opposite side of the IC package 10 from the magnet 823, extends in the positive direction of the y-axis, and then extends in the negative direction of the x-axis. The side opposite to the side connected to the second welding terminal 241 of the second insert portion 242 is connected to the second connector terminal 243.
The second connector terminal 243 is located in the connector part 31. The second connector terminal 243 is formed so as to be electrically connected to the ECU 84 via an external connector. The second terminal line 24 outputs the second signal output from the second signal processing circuit 120 to the ECU 84.

The detouring terminal line 25 includes a detouring connection portion 251, a detouring insert portion 252, and a detouring terminal 253 as “the end opposite to the side connected to the detouring portion of the detouring terminal line”.

The bypass connection portion 251 is located in the negative direction of the y axis of the second welding terminal 241 of the second terminal wire 24 as shown in FIG. That is, the bypass connection portion 251 is located on the opposite side of the ground terminal line 22 from the second terminal line 24. The side opposite to the side connected to the bypass part 222 of the bypass connection part 251 is connected to the bypass insert part 252. In FIG. 2, a virtual boundary line between the detour unit 222 and the detour connection unit 251 is indicated by a dotted line VL20.

The bypass insert portion 252 is inserted in the sensor housing 30. The bypass insert portion 252 is formed to pass through the opposite side of the IC package 10 from the magnet 823, extend in the positive direction of the y-axis, and then extend in the negative direction of the x-axis. The side of the bypass insert portion 252 opposite to the side connected to the bypass connection portion 251 is connected to the bypass terminal 253.

The bypass terminal 253 is located in the connector part 31. The bypass terminal 253 is formed so as to be electrically connected to the ground via an external connector. Thereby, the ground lead wire 17 includes the ground welding terminal 221 and the bypass portion 222 included in the ground terminal wire 22, and the bypass connection portion 251, the bypass insert portion 252, and the bypass terminal included in the bypass terminal wire 25. It is connected to the ground via H.253.

The motor terminal 27 has two motor terminal lines 28 and 29. Each of the two motor terminal lines 28 and 29 has motor connection terminals 281 and 291 as “one end part of the motor terminal line”, motor insert parts 282 and 292, and “the other end part of the motor terminal line”. As motor connector terminals 283 and 293.

The motor connection terminals 281 and 291 are provided in sockets 33 and 34 included in the sensor housing 30. The sockets 33 and 34 are formed so as to be fitted with the motor 83. Thereby, the motor connection terminals 281 and 291 can be connected to an external terminal (not shown) of the motor 83. The motor connection terminals 281 and 291 are connected to the motor insert portions 282 and 292.
The motor insert portions 282 and 292 are inserted into the sensor housing 30. The ends of the motor insert portions 282 and 292 opposite to the side connected to the motor connection terminals 281 and 291 are connected to the motor connector terminals 283 and 293.
The motor connector terminals 283 and 293 are located in the connector portion 31. The motor terminal 27 can supply electric power supplied from the power source to the motor 83 via the connector portion 31.

The sensor housing 30 is a hollow member formed in a substantially rectangular parallelepiped shape, and the length in the x direction is shorter than the length in the y direction as shown in FIG. As shown in FIG. 1, the sensor housing 30 has an opening on the valve housing 81 side, and is formed so that a motor 83 can be accommodated therein. The sensor housing 30 is fixed to the valve housing 81 by a bolt 301 so as not to be relatively movable. The sensor housing 30 has a stage 32 on which the IC package 10 can be mounted (see FIG. 1). Thereby, the IC package 10 is provided in the vicinity of the magnet 823. A part of the sensor terminal 20 is inserted into the stage 32.

Next, the manufacturing method of the rotation angle detection apparatus 1 is demonstrated based on FIG. 3A and 3B.
First, as a “terminal prototype molding process”, the prototype of the sensor terminal 20 and the prototype of the motor terminal 27 are molded by pressing a metal plate or the like. At this time, the prototype of the sensor terminal 20 is the prototype of the first terminal line 21, the prototype of the ground terminal line 22, the prototype of the power terminal line 23, the prototype of the second terminal line 24, and the prototype of the detour terminal line 25. Have a diver to connect. The prototype of the motor terminal 27 has a diver that connects the prototypes of the two motor terminal lines 28 and 29.

FIG. 3A shows a partially enlarged view of the prototype 40 of the sensor terminal 20. In FIG. 3A, the IC package 10 connected to the sensor terminal 20 is indicated by a two-dot chain line.
In the prototype 40 of the sensor terminal 20, a part 411 to be the first welding terminal 211, a part 421 to be the ground welding terminal 221, a part 431 to be the power welding terminal 231, a part 441 to be the second welding terminal 241, and a bypass A portion 451 that becomes the terminal line 25 is connected by a diver 422 that becomes the bypass portion 222.

Next, the sensor housing 30 into which the sensor terminal 20 and the motor terminal 27 are inserted is molded as a “cutting step”. FIG. 3B shows a partially enlarged view of the prototype 40 of the sensor terminal 20 when the sensor housing 30 is molded. In FIG. 3B, the IC package 10 connected to the sensor terminal 20 is indicated by a two-dot chain line.
When forming the sensor housing 30, the part 411 and the diver 422, the part 431 and the diver 422, and the part 441 and the diver 422 are cut while the part 421 and the diver 422 are connected in the prototype 40 of the sensor terminal 20. Leave. In FIG. 3B, the part cut | disconnected at this time is shown with the dotted lines 410,430,440. The sensor terminal 20 formed by cutting the parts 411, 431, 441 and the diver 422 and the motor terminal wires 28, 29 cut from the diver are set in a mold, and resin is applied to the mold. The sensor housing 30 is formed by injection.
Finally, the separately manufactured IC package 10 is mounted on the stage 32 of the sensor housing 30, and the first welding terminal 211 and the first lead wire 16 that are the part 411 and the ground welding terminal 221 and the ground lead wire that are the part 421 are mounted. 17, the power welding terminal 231 and the power supply lead wire 18 which were the parts 431, and the second welding terminal 241 and the second lead wire 19 which were the parts 441 are electrically connected by welding or the like.
Thereby, the rotation angle detection apparatus 1 is completed.

Next, the effect of the rotation angle detection device 1 will be described with reference to FIGS. 4A and 4B.
(A) In FIG. 4A, the first lead wire 16, the ground lead wire 17, the power supply lead wire 18, the second lead wire 19, and the first terminal wire 21 in the rotation angle detection device 1 according to the first embodiment, The positional relationship with the ground terminal line 22, the power supply terminal line 23, and the 2nd terminal line 24 is shown. 4B shows the first lead wire 96, the ground lead wire 97, the power supply lead wire 98, the second lead wire 99, the first terminal wire 91, and the ground terminal wire in the rotation angle detecting device 90 of the comparative example. 92 shows the positional relationship with the power source terminal line 93 and the second terminal line 94. Here, in the rotation angle detection device 90 of the comparative example, unlike the rotation angle detection device 1, the portion welded to the ground lead wire 97 of the ground terminal wire 92 is formed to extend in the positive direction of the x axis. .

In the rotation angle detection device 90 of the comparative example, when the sensor terminal 95 extends from the vicinity of the power supply lead wire 98 or the like to the connector portion 901, the first terminal wire 91 and the ground terminal wire 92 are connected to the connector portion 901 as shown in FIG. 4B. The power terminal line 93 and the second terminal line 94 are arranged in this order. For this reason, since the second terminal line 94 is positioned next to the motor terminal 902 of the rotation angle detection device 90, in the rotation angle detection device 90 of the comparative example, the motor terminal 902 and the second terminal line 94 are May short circuit.

On the other hand, in the rotation angle detection device 1 according to the first embodiment, the ground terminal wire 22 connected to the ground lead wire 17 is a bypass terminal wire 25 located on the opposite side of the ground terminal wire 22 from the second terminal wire 24. Connected to. Thereby, in the connector part 31, the detour terminals 253 of the detour terminal line 25 electrically connected to the ground terminal line 22 are arranged next to the motor connector terminals 283 and 293 of the motor terminal lines 28 and 29. Thereby, compared with the case where the 2nd connector terminal 243 etc. are located next to the motor connector terminal 283,293, the short circuit with the motor terminal 27 and the sensor terminal 20 in the connector part 31 can be prevented.

(B) Further, in the rotation angle detection device 90 of the comparative example, there is a possibility that noise may enter the second signal passing through the second terminal line 94 adjacent to the motor terminal 902 due to the current flowing through the motor terminal 902. For this reason, the rotation angle of the throttle valve 82 cannot be accurately detected.
In the rotation angle detection device 1 according to the first embodiment, the first terminal line 21 and the second terminal line 24 are provided at positions relatively distant from the motor terminal lines 28 and 29. Thereby, the noise which enters into the 1st signal and the 2nd signal due to the magnetic field by the current which flows through motor terminal lines 28 and 29 can be reduced. Therefore, the detection accuracy of the rotation angle of the valve member 821 can be improved.

(C) Moreover, in the rotation angle detection apparatus 1 according to the first embodiment, the ground terminal line 22 is replaced with the first terminal line 21, the power supply terminal line 23, and the second terminal in order to achieve the effects (A) and (B) described above. It is not necessary to route the terminal wire 24 in the direction of the rotation axis CA1. Thereby, it can prevent that the physique of the rotation angle detection apparatus 1 becomes large.

(D) In the manufacturing method of the rotation angle detection device 1 according to the first embodiment, when the prototype 40 of the sensor terminal 20 is used as the sensor terminal 20, the diver 422 and the part 411 that becomes the first welding terminal 211, the diver 422 and the power source While cutting the part 431 to be the welding terminal 231 and the part 441 to be the diver 422 and the second welding terminal 241, it was connected to the part 421 to be the ground welding terminal 221 and the part 451 to be the bypass terminal line 25. The remaining diver 422 is used as the bypass unit 222 of the ground terminal line 22. Thereby, the connector part 31 which can arrange | position the detouring terminal wire 25 electrically connected with the ground terminal wire 22 next to the motor terminal 27 can be formed easily.

(Second embodiment)
A position detection apparatus according to the second embodiment will be described with reference to FIG. The second embodiment is different from the first embodiment in that a capacitor is provided.

The rotation angle detection device according to the second embodiment includes an IC package 10, a sensor terminal 20, a motor terminal 27, capacitors 35, 36 and 37, and a sensor housing 30.

The capacitors 35, 36 and 37 are provided in the IC package 10.
Capacitor 35 is provided to connect first welding terminal 211 and bypass portion 222 in a direction along the x-axis.
Capacitor 36 is provided to connect power supply welding terminal 231 and bypass portion 222 in a direction along the x-axis.
The capacitor 37 is provided so as to connect the second welding terminal 241 and the bypass portion 222 in a direction along the x axis.

In the IC package 10, in order to reduce the physique, the first magnetic detection element 11, the first signal processing circuit 110, the second magnetic detection element 12, and the second signal processing circuit 120 are sealed by the sealing unit 13. The size of the capacitor (not shown) is limited, and it is difficult to ensure a certain degree of EMC resistance.
Therefore, in the rotation angle detection device according to the second embodiment, between the first welding terminal 211 and the bypass portion 222, between the power welding terminal 231 and the bypass portion 222, and between the second weld terminal 241 and the bypass portion 222, Noise can be reduced by providing external capacitors 35, 36, and 37 between the two. Thereby, 2nd embodiment can improve EMC resistance while having the same effect as 1st embodiment.

Further, in the manufacturing process of the rotation angle detection device according to the second embodiment, the capacitors 35, 36, and 37 can be provided in the region where the diver is cut. Thereby, the capacitors 35, 36, and 37 can be easily provided between the IC package 10 and the sensor terminal 20.

Further, in the rotation angle detection device according to the second embodiment, the capacitors 35, 36, and 37 are provided so as to be connected in a direction along the x axis that is the short direction of the sensor housing 30. As a result, when the sensor housing 30 is expanded by heat, the degree of thermal expansion is relatively small in the short direction, so that the capacitors 35, 36, and 37 can be prevented from being damaged.

(Third embodiment)
A position detection apparatus according to the third embodiment will be described with reference to FIGS. In the third embodiment, the shapes of the IC package and the sensor terminal are different from those of the first embodiment.

The rotation angle detection device 3 according to the third embodiment includes an IC package 50, a sensor terminal 60, a motor terminal 27, and a sensor housing 70 as a “housing”. The rotation angle detection device 3 is provided in the valve housing 81 on the end side where the magnet 823 of the valve shaft 822 is provided. In FIG. 6, the sensor housing 70 is indicated by a dotted line, and the shape and arrangement of the IC package 50, the sensor terminal 60, and the motor terminal 27 are schematically shown.

The IC package 50 includes a first magnetic detection element 11 as a “magnetic detection element”, a first signal processing circuit 110, a sealing portion 13, a first lead 16 as a “signal lead”, a ground lead 17 and a power supply. A lead wire 18 and a dummy lead wire 59 are provided. Unlike the first embodiment, the IC package 50 is an IC package having one magnetic detection element. The IC package 50 is provided in the vicinity of the magnet 823 on the rotation axis CA1.

The dummy lead wire 59 is formed so as to protrude from the one surface 131 of the sealing portion 13 in the negative direction of the x axis. The dummy lead wire 59 is not electrically connected to the first magnetic detection element 11 and is provided on the side opposite to the ground lead wire 17 when viewed from the power supply lead wire 18.

The sensor terminal 60 includes a first terminal line 21 as a “signal terminal line”, a ground terminal line 62, and a power supply terminal line 23 having a first welding terminal 211 as a “signal connection portion” that can be welded to the first lead wire 16. And a dummy terminal line 64. The sensor terminal 60 is a member having a relatively high conductivity formed so as to extend from the vicinity of the first lead wire 16 or the like to the connector portion 71 of the sensor housing 70 through the side opposite to the magnet 823 of the IC package 50. is there. The sensor terminal 60 is integrated with the sensor housing 70 by insert molding of the sensor housing 70.

The ground terminal wire 62 includes a ground welding terminal 621 as a “ground connection portion”, a bypass portion 622, a ground insert portion 620, and a ground connector terminal as an “end portion of the ground terminal line opposite to the bypass portion”. 623.

The ground welding terminal 621 is provided at a position where it can be welded to the ground lead wire 17. The ground welding terminal 621 is formed to extend in the direction along the x-axis. The negative direction side of the x-axis of the ground welding terminal 621 is connected to the bypass portion 622. The plus direction side of the x-axis of the ground welding terminal 621 is connected to the ground insert portion 620.

The detour portion 622 is formed to extend in the y direction as “a direction different from the first direction”. The bypass portion 622 is located in the negative direction of the x axis of the first welding terminal 211, the ground welding terminal 621, the power supply welding terminal 231, and the dummy connection portion 641 of the dummy terminal wire 64. The bypass portion 622 is connected to the ground welding terminal 621 and the dummy connection portion 641 on the positive side of the x-axis.

The ground insert portion 620 is inserted into the sensor housing 70. The ground insert portion 620 is formed so as to pass through the opposite side of the IC package 50 from the magnet 823, extend in the positive direction of the y-axis, and then extend in the negative direction of the x-axis. The side of the ground insert portion 620 opposite to the side connected to the ground welding terminal 221 is connected to the ground connector terminal 623.
The ground connector terminal 623 is located in the connector portion 71. The ground connector terminal 623 is formed so as to be electrically connected to the ground via an external connector.

The dummy terminal line 64 has a dummy connection part 641, a dummy insert part 642, and a dummy terminal 643 as an “end opposite to the side connected to the detour part of the dummy terminal line”.

The dummy connection portion 641 is provided at a position where it can be welded to the dummy lead wire 59. The dummy connection portion 641 is formed to extend in the direction along the x axis. The negative direction side of the x-axis of the dummy connection portion 641 is connected to the bypass portion 622. The plus direction side of the x-axis of the dummy connection portion 641 is connected to the dummy insert portion 642. In FIG. 6, a virtual boundary line between the detour unit 622 and the dummy connection unit 641 is indicated by a dotted line VL60.

The dummy insert part 642 is inserted in the sensor housing 70. The dummy insert portion 642 is formed to pass through the opposite side of the IC package 50 from the magnet 823, extend in the positive direction of the y-axis, and then extend in the negative direction of the x-axis. The side of the dummy insert portion 642 opposite to the side connected to the dummy connection portion 641 is connected to the dummy terminal 643.

The dummy terminal 643 is located in the connector part 31. The dummy terminal 643 is formed so as to be electrically connected to the ground via an external connector.
Thus, in the rotation angle detection device 3, the ground lead wire 17 is connected to the ground through two paths. One path is a path that passes through the ground welding terminal 621, the ground insert portion 620, and the ground connector terminal 623. The other is a path that passes through the ground welding terminal 621, the bypass part 622, the dummy connection part 641, the dummy insert part 642, and the dummy terminal 643.

Next, a manufacturing method of the rotation angle detection device 3 will be described based on FIGS. 7A and 7B.
First, as a “terminal prototype molding process”, the prototype of the sensor terminal 60 and the prototype of the motor terminal 27 are molded by pressing a metal plate or the like.
FIG. 7A shows a partially enlarged view of the prototype 45 of the sensor terminal 60. In FIG. 7A, the IC package 50 connected to the sensor terminal 60 is indicated by a two-dot chain line.
In the prototype 45 of the sensor terminal 60, a part 461 that becomes the first welding terminal 211, a part 471 that becomes the ground welding terminal 621, a part 481 that becomes the power welding terminal 231, and a part 491 that becomes the dummy connection part 641. Are connected by a diver 472.

Next, the sensor housing 70 into which the sensor terminal 60 and the motor terminal 27 are inserted is molded as a “cutting step”. FIG. 7B shows a partially enlarged view of the prototype 45 of the sensor terminal 60 when the sensor housing 70 is molded. In FIG. 7B, the IC package 50 connected to the sensor terminal 60 is indicated by a two-dot chain line.
When the sensor housing 70 is molded, the part 461 and the diver 472, and the part 481 and the diver 472 are cut in the prototype 45 of the sensor terminal 60, while the part 471 and the diver 472, and the part 491 and the diver 472 are cut. Leave connected. In FIG. 7B, the part cut | disconnected at this time is shown with the dotted lines 460 and 480. FIG. The sensor terminal 60 formed by cutting the parts 461 and 481 and the diver 472 and the motor terminal wires 28 and 29 cut from the diver are set in a mold, and resin is injected into the mold. Thus, the sensor housing 70 is formed.
Finally, the separately manufactured IC package 50 is mounted on the stage 32 of the sensor housing 70, and the first welding terminal 211 and the first lead wire 16, which are the parts 461, and the ground welding terminal 621 and the ground lead wire that are the parts 471. 17, the power welding terminal 231 and the power supply lead wire 18 which are the part 481 and the dummy connection part 641 and the dummy lead wire 59 which are the part 491 are electrically connected by welding or the like.
Thereby, the rotation angle detection device 3 is completed.

In the rotation angle detection device 3 according to the third embodiment, the bypass portion 622 of the ground terminal line 62 is connected to a dummy terminal line 64 provided on the opposite side of the ground terminal line 62 from the power terminal line 23. Thereby, in the connector part 71, the dummy terminal 643 of the dummy terminal line 64 electrically connected to the ground terminal line 62 and the power connector terminal in order from the motor connector terminals 283 and 293 of the motor terminal lines 28 and 29 in this order. 233, first connector terminals 213 are arranged as “the end of the signal terminal line opposite to the signal connection portion”. Thereby, the third embodiment has the effects (A) to (C) of the first embodiment.

In the method of manufacturing the rotation angle detection device 3 according to the third embodiment, when the prototype 45 of the sensor terminal 60 is used as the sensor terminal 60, the diver 472 and the part 461 and the diver 472 that become the first welding terminal 211 are welded to the power source. While cutting the part 481 to be the terminal 231, the diver 472 and the part 471 to be the ground welding terminal 621 and the diver 472 with the diver 472 and the part 481 to be the dummy connection part 641 connected are bypassed the ground terminal line 62. Used as part 622. Thereby, the connector part 71 which can arrange | position the dummy terminal wire 64 electrically connected with the ground lead wire 17 adjacent to the motor terminal 27 can be formed easily.

(Fourth embodiment)
A position detection apparatus according to the fourth embodiment will be described with reference to FIG. The fourth embodiment is different from the third embodiment in that a capacitor is provided.

The rotation angle detection device according to the fourth embodiment includes an IC package 50, a sensor terminal 60, a motor terminal 27, capacitors 75 and 76, and a sensor housing 70.

Capacitors 75 and 76 are provided in the IC package 50.
Capacitor 75 is provided to connect first welding terminal 211 and bypass portion 622 in a direction along the x-axis.
Capacitor 76 is provided to connect power supply welding terminal 231 and bypass portion 622 in a direction along the x-axis.

In the rotation angle detection device according to the fourth embodiment, noise is provided by providing external capacitors 75 and 76 between the first welding terminal 211 and the bypass portion 622 and between the power welding terminal 231 and the bypass portion 622. Can be reduced. Therefore, the fourth embodiment has the same effect as the second embodiment.

(Other embodiments)
In the above-described embodiment, the position detection device is applied to an electronically controlled throttle device that controls the intake air amount to the engine mounted on the vehicle. However, the field to which the position detection device is applied is not limited to this.

In the above-described embodiment, as shown in FIGS. 2 and 6, the sensor terminal is formed so that one end connected to the lead wire and the other end located in the connector portion are positioned substantially in parallel. did. However, the shape of the sensor terminal is not limited to this.

In the above-described embodiment, the bypass portion is formed to extend in the y direction. However, the method of extending the detour portion is not limited to this. It may be formed so as to be connected to the ground welding terminal on the plus side of the x-axis and extend in a direction different from the ground welding terminal.

In the second embodiment, the position detection device includes three capacitors. In the fourth embodiment, the position detection device includes two capacitors. One capacitor may be provided.

In the second and fourth embodiments, the capacitor is provided so as to be connected in the direction along the x-axis which is the short direction of the housing. However, the direction in which the capacitor is provided is not limited to this.

In the first and second embodiments, in the IC package, the first lead wire, the ground lead wire, the power supply lead wire, and the second lead wire are in this order from the positive side to the negative side of the y axis in the negative direction of the x axis. It is assumed that they are arranged so as to protrude. However, the order in which the lead wires are arranged is not limited to this. For example, as shown in FIG. 9, the first lead wire 16, the power supply lead wire 18, the ground lead wire 17, and the second lead wire 19 are in this order from the plus side of the y-axis toward the minus side. You may arrange so that it may protrude in a direction. Even in this case, as shown in FIG. 9, by providing the bypass portion 222 of the ground terminal wire 22 on the negative direction side of the x-axis of the second lead wire 19, the same effects as the first and second embodiments can be obtained. it can.
The same applies to the third and fourth embodiments. For example, as shown in FIG. 10, the first lead wire 16, the power supply lead wire 18, the ground lead wire 17, and the dummy lead wire 59 are arranged in this order from the plus side to the minus side of the y-axis in the minus direction of the x-axis. Even if they are arranged so as to protrude, the same effects as the third and fourth embodiments can be obtained.

In the first and second embodiments, the IC package has a first signal processing circuit and a second signal processing circuit. In the third and fourth embodiments, the IC package has the first signal processing circuit. However, the IC package may not have the first signal processing circuit and the second signal processing circuit. In the IC package, the first magnetic detection element and the first signal processing circuit, or the second magnetic detection element and the second signal processing circuit are provided separately. The first magnetic detection element and the first signal processing circuit, or the second magnetic detection element and the second signal processing circuit may be integrated.

The magnetic detection element in the above-described embodiment is only required to be able to output a signal corresponding to the magnetic field component or the strength of the component, such as a Hall element or an MR element.

In the above embodiment, the lead wire and the terminal wire are electrically connected by welding. However, the electrical connection method between the lead wire and the terminal wire is not limited to this. The welding method may be resistance welding or laser welding. Moreover, joining by solder and joining by a conductive adhesive may be used.

As described above, the present disclosure is not limited to such an embodiment, and can be implemented in various forms without departing from the gist thereof.

This disclosure has been described in accordance with the examples. However, the present disclosure is not limited to the embodiments and structures. The present disclosure also includes various modifications and modifications within the equivalent scope. Further, various combinations and forms, and other combinations and forms including only one element, more or less, are also included in the scope and spirit of the present disclosure.

Claims (8)

1. A position detection device capable of detecting the position of a detection target (821),
   A first magnetic detection element (11) capable of outputting a first component of the surrounding magnetic field or a signal corresponding to the strength of the first component; a second component different from the first component of the surrounding magnetic field Or a second magnetic detection element (12) capable of outputting a signal corresponding to the strength of the second component, a sealing portion (13) for sealing the first magnetic detection element and the second magnetic detection element, A first lead wire (16) protruding in the first direction from the sealing portion and capable of outputting the first signal output from the first magnetic detection element to the outside, protruding in the first direction from the sealing portion, and A ground lead wire (17) for passing a current flowing through the first magnetic detection element and the second magnetic detection element to the ground, protruding from the sealing portion in the first direction, and the first magnetic detection element and the second magnetic detection A power supply lead (18) through which a current directed to the element flows, and the front It has a second lead wire (19) that protrudes from the sealing portion in the first direction and can output the second signal output from the second magnetic detection element to the outside, and the ground lead wire and the power supply lead wire are An IC package (10) provided between the first lead wire and the second lead wire;
   A first terminal line (21) formed to extend in a direction opposite to the first direction from a first connection part (211) electrically connectable to the first lead wire;
   A ground connection part (221) formed so as to be electrically connectable to the ground lead wire, and formed on the first direction side of the ground connection part so as to extend in a direction different from the first direction. A ground terminal line (22) having a bypass (222) connected to the ground connection;
   A power supply terminal line (23) formed to extend in a direction opposite to the first direction from a power supply connection part (231) electrically connectable to the power supply lead;
   A second terminal line (24) formed to extend in a direction opposite to the first direction from a second connection part (241) electrically connectable to the second lead wire;
   A detour terminal line (25) that is located on the opposite side of the first terminal line or the second terminal line and that is formed to connect to the detour portion;
   A motor terminal wire (28, 29) capable of supplying electric power to the motor (83) and one end portion (281, 291) electrically connected to the detection target;
   The other end portion (283, 293) of the motor terminal line, the end portion (253) opposite to the side connecting to the detour portion of the detour terminal line, and the second connection portion of the second terminal line An end portion (243) opposite to the power supply terminal line, an end portion 233 opposite to the power supply connection portion, and an end portion opposite to the first connection portion of the first terminal line ( 213) in the order of connectors (31);
   A position detection device comprising:
2. The position according to claim 1, further comprising a capacitor (35, 36, 37) for electrically connecting at least one of the first terminal line, the power supply terminal line, and the second terminal line and the bypass portion. Detection device.
3. A housing (30) capable of supporting the first terminal line, the ground terminal line, the power supply terminal line, the second terminal line, and the bypass terminal line;
   The position detection device according to claim 2, wherein the capacitor is provided along a short direction of the housing.
4. A first magnetic detection element (11) capable of outputting a first component of the surrounding magnetic field or a signal corresponding to the strength of the first component; a second component different from the first component of the surrounding magnetic field Or a second magnetic detection element (12) capable of outputting a signal corresponding to the strength of the second component, a sealing portion (13) for sealing the first magnetic detection element and the second magnetic detection element, A first lead wire (16) protruding in the first direction from the sealing portion and capable of outputting the first signal output from the first magnetic detection element to the outside, protruding in the first direction from the sealing portion, and A ground lead wire (17) for passing a current flowing through the first magnetic detection element and the second magnetic detection element to the ground, protruding from the sealing portion in the first direction, and the first magnetic detection element and the second magnetic detection A power supply lead (18) through which a current directed to the element flows, and the front It has a second lead wire (19) that protrudes from the sealing portion in the first direction and can output the second signal output from the second magnetic detection element to the outside, and the ground lead wire and the power supply lead wire are An IC package (10) provided between the first lead wire and the second lead wire;
   A first terminal line (21) formed to extend in a direction opposite to the first direction from a first connection part (211) electrically connectable to the first lead wire;
   A ground connection part (221) formed so as to be electrically connectable to the ground lead wire, and formed on the first direction side of the ground connection part so as to extend in a direction different from the first direction. A ground terminal line (22) having a bypass (222) connected to the ground connection;
   A power supply terminal line (23) formed to extend in a direction opposite to the first direction from a power supply connection part (231) electrically connectable to the power supply lead;
   A second terminal line (24) formed to extend in a direction opposite to the first direction from a second connection part (241) electrically connectable to the second lead wire;
   A detour terminal line (25) that is located on the opposite side of the first terminal line or the second terminal line and that is formed to connect to the detour portion;
   A motor terminal line (28, 29) capable of supplying electric power to the motor (83) capable of rotating the detection target (821) and one end (281, 291) electrically connected thereto;
   The other end portion (283, 293) of the motor terminal line, the end portion (253) opposite to the side connecting to the detour portion of the detour terminal line, and the second connection portion of the second terminal line An end portion (243) opposite to the power supply terminal line, an end portion 233 opposite to the power supply connection portion, and an end portion opposite to the first connection portion of the first terminal line ( 213), and a manufacturing method of a position detecting device capable of detecting the position of the detection target,
   A portion (411) serving as the first connection portion of the first terminal line, a portion (421) serving as the ground connection portion of the ground terminal line, a portion (431) serving as the power connection portion of the power terminal line, The first terminal on the first direction side of the part serving as the second connection part of the second terminal line (441), the part serving as the bypass terminal line (451), and the part serving as the ground connection part. A diver (422) connected to a part to be a connection part, a part to be the ground connection part, a part to be the power connection part, a part to be the second connection part, and a part to be the detour terminal line A terminal prototype molding process for integrally molding as a terminal prototype (40);
   After the terminal prototype forming step, a cutting step of cutting the part that becomes the diver and the first connection part, the part that becomes the diver and the power connection part, and the part that becomes the diver and the second connection part When,
   A method of manufacturing a position detecting device including:
5. A position detection device capable of detecting the position of a detection target (821),
   A magnetic detection element (11) capable of outputting a signal corresponding to one component of the surrounding magnetic field or the strength of the one component, a sealing portion (13) for sealing the magnetic detection element, and the sealing portion A signal lead wire (16) protruding in the first direction and capable of outputting the signal output from the magnetic detection element to the outside, and a current protruding from the sealing portion in the first direction and flowing through the magnetic detection element to the ground A ground lead wire (17), a power supply lead wire (18) that protrudes from the sealing portion in the first direction and flows a current toward the magnetic detection element, and protrudes from the sealing portion in the first direction to the first direction. An IC package (50) having a dummy lead wire (59) not electrically connected to the magnetic detection element, wherein the ground lead wire and the power supply lead wire are provided between the signal lead wire and the dummy lead wire. )When,
   A signal terminal line (21) formed to extend in a direction opposite to the first direction from a signal connection portion (211) electrically connectable to the signal lead wire;
   A ground connection portion (621) formed so as to be electrically connectable to the ground lead wire, and formed on the first direction side of the ground connection portion so as to extend in a direction different from the first direction. A ground terminal line (62) having a bypass (622) connected to the ground connection;
   A power supply terminal line (23) formed to extend in a direction opposite to the first direction from a power supply connection part (231) electrically connectable to the power supply lead;
   It is provided on the opposite side to the signal terminal line as viewed from the ground terminal line, and extends in a direction opposite to the first direction from a dummy connection part (641) connectable to the bypass part and the dummy lead wire. A dummy terminal line (64) to be formed;
   A motor terminal wire (28, 29) capable of supplying electric power to the motor (83) and one end portion (281, 291) electrically connected to the detection target;
   The other end portion (283, 293) of the motor terminal line, the end portion (643) opposite to the side connecting to the bypass portion of the dummy terminal line, and opposite to the power connection portion of the power terminal line Either the end portion (233) on the side or the end portion (623) on the opposite side of the bypass portion side of the ground terminal line, or the end portion on the opposite side of the power connection portion of the power terminal line or the A connector part (71) provided in the order of the other end of the signal terminal line opposite to the signal connection part (213) on the other side of the end of the ground terminal line opposite to the bypass part;
   A position detection device comprising:
6. The position detection device according to claim 5, further comprising a capacitor (75, 76) for electrically connecting at least one of the signal terminal line and the power supply terminal line and the bypass portion.
7. A housing (70) capable of supporting the signal terminal line, the ground terminal line, the power supply terminal line, and the dummy terminal line;
   The position detection device according to claim 6, wherein the capacitor is provided along a short direction of the housing.
8. A position detection device capable of detecting the position of a detection target (821),
   A magnetic detection element (11) capable of outputting a signal corresponding to one component of the surrounding magnetic field or the strength of the one component, a sealing portion (13) for sealing the magnetic detection element, and the sealing portion A signal lead wire (16) protruding in the first direction and capable of outputting the signal output from the magnetic detection element to the outside, and a current protruding from the sealing portion in the first direction and flowing through the magnetic detection element to the ground A ground lead wire (17), a power supply lead wire (18) that protrudes from the sealing portion in the first direction and flows a current toward the magnetic detection element, and protrudes from the sealing portion in the first direction to the first direction. An IC package (50) having a dummy lead wire (59) not electrically connected to the magnetic detection element, wherein the ground lead wire and the power supply lead wire are provided between the signal lead wire and the dummy lead wire. )When,
   A signal terminal line (21) formed to extend in a direction opposite to the first direction from a signal connection portion (211) electrically connectable to the signal lead wire;
   A ground connection portion (621) formed so as to be electrically connectable to the ground lead wire, and formed on the first direction side of the ground connection portion so as to extend in a direction different from the first direction. A ground terminal line (62) having a bypass (622) connected to the ground connection;
   A power supply terminal line (23) formed to extend in a direction opposite to the first direction from a power supply connection part (231) electrically connectable to the power supply lead;
   It is provided on the opposite side to the signal terminal line as viewed from the ground terminal line, and extends in a direction opposite to the first direction from a dummy connection part (641) connectable to the bypass part and the dummy lead wire. A dummy terminal line (64) to be formed;
   A motor terminal wire (28, 29) capable of supplying electric power to the motor (83) and one end portion (281, 291) electrically connected to the detection target;
   The other end portion (283, 293) of the motor terminal line, the end portion (253) opposite to the side connecting to the bypass portion of the dummy terminal line, and opposite to the power connection portion of the power terminal line Either the end (233) on the side or the end (623) on the opposite side to the side connected to the detour portion of the ground terminal line, the end on the opposite side to the power connection portion of the power terminal line The other end of the signal terminal line (213) or the end (213) of the signal terminal line opposite to the end of the signal terminal line (213) ) Connector portion (71) provided in the order of
   A method of manufacturing a position detection device comprising:
   A portion (461) serving as the signal connection portion of the signal terminal line, a portion (471) serving as the ground connection portion of the ground terminal line, a portion (481) serving as the power connection portion of the power terminal line, and the dummy A portion (491) of the terminal line that becomes the dummy connection portion, a portion that becomes the signal connection portion on the first direction side of the portion that becomes the ground connection portion, a portion that becomes the ground connection portion, and the power supply connection A terminal prototype forming step of integrally molding a diver (472) connected to a part to be a part and a part to be the dummy connection part as a prototype (45) of a sensor terminal;
   After the terminal prototype forming step, a cutting step for cutting the part that becomes the diver and the signal connection part, and the part that becomes the diver and the power connection part,
   A method of manufacturing a position detecting device including:

Images