KR101230978B1 - Connector for compensating combination position - Google Patents

Abstract

PURPOSE: A connector for arranging objects is provided to increase an electric bond among the objects by connecting a movable part with the objects. CONSTITUTION: One end part of a first connecting part(110) is electrically connected to a signal line and a ground line of a first object. One end part of a second connecting part(120) is electrically connected to a signal line and a ground line of a second object. A protruding part(135) which is connected to the first connecting part is formed in the side of a housing(130). The second connecting part is connected to the side of the housing. An elastic member(140) provides elasticity in a parallel way to the side of the first connecting part and the side of the second connecting part.

Description

Connector for compensating combination position}

The present invention relates to a connector, and more particularly, to a connector for compensating a coupling position that can compensate for a coupling position when engaging an object.

Various signals are transmitted between wired and wireless communication devices. Communication devices to which signals are transmitted use connectors to electrically connect each other. The connector couples the objects to transfer electrical signals and ground voltages between the objects, for example, coupling between printed circuit boards, coupling between printed circuit boards and coaxial cables, or coupling between coaxial cables.

In this case, when the alignment states of the objects to be joined are different, the connector cannot accurately connect the objects. For example, when a plurality of connectors, one end of which is fixed to one object, is to be coupled to another object, the distance between the fixed connectors and the position of the object to be coupled may be the same so that they can be electrically connected correctly. However, in all cases, the spacing between the connectors and the position of the object to be bonded to the printed circuit board is difficult to be the same, and when the spacing between the connectors and the position of the object to be joined are different from each other, there is no electrical connection and a defect occurs. There is a problem.

The problem to be solved by the present invention is to provide a connector for the compensation of the coupling position that can improve the reliability of the electrical coupling between the objects because the contact between the objects using the fluidity even when the coupling position is not exactly match. have.

According to an embodiment of the present invention for achieving the above object, a coupling position compensation connector for electrically connecting a first object and a second object, one end is electrically connected to the first signal line and the first ground line of the first object A first contact portion in contact with the second contact portion, a second contact portion in which one end thereof is in electrical contact with the second signal line and the second ground line of the second object, a hollow is formed therein, and an inner diameter is larger than an outer diameter of the first contact portion, A latching jaw in which the first contact portion is fluidly coupled to an end side is formed, and a housing in which the second contact portion is coupled and fixed to the other end side, is inserted into the housing, and the other end of the first contact portion and the first An elastic member coupled between the other ends of the second contact portion to provide elasticity in the axial direction and inserted into the housing, and the other end of the first contact portion and the second contact portion Is coupled between the other end may be provided with a flexible cable for transmitting a signal and a ground voltage.

One end of the first contact portion is in electrical contact with the first ground wire, and the other end is electrically coupled with one end side ground wire of the flexible cable, and is engaged with the one end of the elastic member so as to be caught by the latching jaw. A portion of an outer circumferential surface is inserted into the first body, the end of which is inserted into the first body, one end of which is in electrical contact with the first signal line, and the other end of which is electrically connected to the signal line of one end of the flexible cable The first signal pin coupled to the first and the first body is inserted into the inside of the first body may be provided with a first insulating portion for insulating the first signal pin and the first body.

One portion of the outer circumferential surface of the first body that is bent outwardly may be coupled to one end of the elastic member, and the other surface may be caught by the locking jaw of the housing when the elastic member is provided with elasticity.

The second contact portion is inserted and fixed to the other end side of the housing, one end is in electrical contact with the second ground wire, the other end side supports the other end of the elastic member and the other end side ground wire of the flexible cable A second body electrically coupled to the second body, the second body inserted into the second body, one end of which is in electrical contact with the second signal line, and the other end of which is electrically coupled to the other end side signal line of the flexible cable; The second pin may be inserted into the signal pin and the second body to insulate the second signal pin from the second body.

According to another embodiment of the present invention for achieving the above object is a coupling position compensation connector for electrically connecting the first object and the second object, one end of the first signal line and the first ground line of the first object; A first contact portion in electrical contact, a second contact portion in one end thereof in electrical contact with the second signal line and the second ground line of the second object, a hollow formed therein, and an inner diameter of the first contact portion in the outer diameter and the first A housing which is larger than an outer diameter of the second contact portion and has a latching jaw in which the first contact portion is fluidly coupled to one end side, and a second locking jaw in which the second contact portion is fluidly coupled to the other end side, the housing An elastic member inserted into an inside of the housing and coupled between the other end of the first contact portion and the other end of the second contact portion to provide elasticity in an axial direction; Is inserted into the unit, is coupled between the other end of the other end and the second contacts of the first contact portion may be provided with a flexible cable for transmitting a signal and a ground voltage.

One end of the first contact portion is in electrical contact with the first ground wire, and the other end is electrically coupled to the ground wire at one end of the flexible cable, and coupled to one end of the elastic member to the first engaging jaw. A part of an outer circumferential surface that is bent outwardly and inserted into the first body, one end of which is in electrical contact with the first signal line, and the other end of which is connected to one end of the flexible cable And a first insulation pin electrically coupled to the first signal pin and a first insulation portion inserted into the first body to insulate the first signal pin from the first body.

One portion of the outer circumferential surface of the first body that is bent outwardly may be coupled to one end of the elastic member, and the other surface may be caught by the first latching jaw of the housing when elasticity is provided from the elastic member.

The second contact portion has one end electrically contacted with the second ground wire, the other end is electrically coupled with the other end side ground wire of the flexible cable, and is coupled with the other end of the elastic member to the second catching jaw. A second body of which a part of an outer circumferential surface is bent outwardly, is inserted into the second body, one end is in electrical contact with the second signal line, and the other end is a signal line at the other end of the flexible cable And a second signal pin electrically coupled to the second signal pin and a second insulating part inserted into the second body to insulate the second signal pin from the second body.

One side of the outer circumferential surface of the second body is bent outwardly coupled to the other end of the elastic member, the other surface may be caught on the second locking jaw of the housing when the elastic member is provided with elasticity.

According to an embodiment of the present invention, the connector for compensating for the coupling position according to an embodiment of the present disclosure may improve the reliability of electrical coupling between objects because the connector contacts the object by using a contact having fluidity even when the coupling positions of the objects do not exactly match. There is an advantage. That is, the connector for compensating the coupling position according to the embodiment of the present invention has the advantage of electrically connecting the objects while correcting the misalignment between the objects.

BRIEF DESCRIPTION OF THE DRAWINGS In order to better understand the drawings cited in the detailed description of the invention, a brief description of each drawing is provided.
1 is a perspective view of a coupling position compensating connector according to an embodiment of the inventive concept.
FIG. 2 is a perspective view of another side of the coupling position compensating connector of FIG. 1. FIG.
3 is a perspective view of the housing of FIG. 1;
4 is a perspective view of the first contact portion of FIG. 1.
5 is a perspective view of the second contact portion of FIG. 2.
6 is a cross-sectional view of the connector for compensating the position of FIG. 1.
7 is a perspective view of a coupling position compensating connector according to another exemplary embodiment of the inventive concept.
FIG. 8 is a perspective view of another side of the coupling position compensating connector of FIG. 7; FIG.
9 is a perspective view of the housing of FIG. 7.
10 is a perspective view of the first contact portion of FIG. 7.
FIG. 11 is a perspective view of the second contact portion of FIG. 8. FIG.
12 is a cross-sectional view of the coupling position compensation connector of FIG.

In order to fully understand the present invention, operational advantages of the present invention, and objects achieved by the practice of the present invention, reference should be made to the accompanying drawings and the accompanying drawings which illustrate preferred embodiments of the present invention.

BEST MODE FOR CARRYING OUT THE INVENTION Hereinafter, the present invention will be described in detail with reference to the preferred embodiments of the present invention with reference to the accompanying drawings. Like reference symbols in the drawings denote like elements.

1 is a perspective view of one side of the coupling position compensation connector 100 according to an embodiment of the present invention, Figure 2 is a view from the other side of the coupling position compensation connector 100 of FIG. Perspective view. 3 is a perspective view of the housing 130 of FIG. 1, FIG. 4 is a perspective view of the first contact portion 110 of FIG. 1, and FIG. 5 is a perspective view of the second contact portion 120 of FIG. 2. 6 is a cross-sectional view of the connector 100 for the compensation of the coupling position of FIG.

Hereinafter, a coupling position compensating connector 100 that can be coupled to electrically connect while compensating a coupling position between objects will be described with reference to FIGS. 1 to 6. Although not shown in the drawings, hereinafter, a case in which the coupling position compensating connector 100 couples the first object and the second object will be described. Each of the first object and the second object may be a coaxial cable or a printed circuit board. However, the coupling position compensation connector 100 according to an embodiment of the present invention is not limited to coupling between coaxial cables, coupling between printed circuit boards, or coupling between a printed circuit board and a coaxial cable. If it is necessary to connect and electrically connect, it can be used for the coupling of various other objects.

The coupling position compensating connector 100 may include a first contact part 110, a second contact part 120, a housing 130, an elastic body 140, and a flexible cable 150. Hereinafter, for convenience of explanation, it is assumed that the first contact portion 110 is electrically connected to the first object, and the second contact portion 120 is electrically connected to the second object.

The housing 130 has a hollow formed therein, the first contact portion 110 is coupled to one end while having fluidity, and the second contact portion 120 is fixed to the other end and coupled thereto. A locking jaw 135 may be formed at an inner circumferential surface of one end side of the housing 130, and the locking jaw 135 may include a first contact part when the first contact part 110 is provided with elasticity by the elastic member 140. 110 may be prevented from escaping to the outside. The shape in which the first contact portion 110 and the second contact portion 120 are coupled to the housing 130 will be described in more detail below.

One end of the first contact unit 110 may be coupled to the first object to electrically contact the first signal line and the first ground line of the first object. In addition, the first contact portion 110 may be inserted into a hollow formed inside the housing 130, the outer diameter of the first contact portion 110 may be smaller than the inner diameter of the housing 130. That is, since the portion of the first contact portion 110 having the largest outer diameter has fluidity without being fixedly coupled to the inside of the housing 130, the first contact portion 110 may have various positions inside the housing 130. Therefore, it is possible to compensate the coupling position to engage with the first object.

The first contact unit 110 may include a first body 111, a first signal pin 113, and a first insulator 112. One end of the first body 111 may be in electrical contact with the first ground wire of the first object, and the other end may be in electrical contact with the ground wire of one end of the flexible cable 150. For example, a hollow in which the first insulator 112 and the first signal pin 113 are inserted may be formed at one end side of the first body 110, and at the other end side of the first body 110. The flexible cable 150 may be inserted to form a first coupling groove for electrically coupling the ground wire of one end of the flexible cable 150. The flexible cable 150 may be coupled to the first coupling groove formed at the other end of the first body 111 by various methods such as pressing fit or soldering.

One portion of the outer circumferential surface of the first body 111 may be formed to be bent outwardly so as to be engaged with one end of the elastic member 140 and to be caught by the locking projection 135 of the housing 130. That is, even when the first contact portion 110 is provided with elasticity by the elastic member 140 that provides elasticity in the axial direction, the bent portion of the first body 111 may have the locking step of the housing 130. The first contact portion 110 may not be separated to the outside by being caught by 135. The portion of the first contact portion 110 having the largest outer diameter may be a portion that is bent outwardly, and in this case, the outer diameter of the portion that is bent outwardly may be smaller than the inner diameter of the housing 130. have.

The first signal pin 113 is inserted into the hollow formed inside the first body 111, one end of the first electrical contact with the first signal line of the first object, the other end of the flexible cable 150 Electrical contact with the end side signal line is possible. For example, the first signal pin 113 may have a second coupling groove formed at the other end thereof so that the flexible cable 150 is inserted into the first signal pin 113 so as to be electrically coupled to the signal line at one end of the flexible cable 150. The flexible cable 150 may be coupled to the second coupling groove formed at the other end of the first signal pin 113 by various methods such as compression fitting or soldering. In addition, one end side end of the first signal pin 113 may be formed to be located inside the one end side end of the first body 111. The first signal pin 113 may be a general pin or a pogo pin providing elasticity, but in the present invention, the first signal pin 113 is not limited to this case. 1 Various types of pins can be used as long as they can electrically connect the signal line and the signal line of the flexible cable.

The first insulator 112 may be coupled between the first signal pin 113 and the first body 111 to electrically insulate the first signal pin 113 and the first body 111. For example, the first insulator 112 may be inserted into a hollow formed in the first body 111 and the hollow in which the first signal pin 113 may be inserted into the first insulator 112. This can be formed.

One end of the second contact portion 120 may be coupled to the second object to electrically contact the second signal line and the second ground line of the second object. In addition, the second contact portion 120 may be inserted into and fixed to the other end side of the housing 130. That is, unlike the first contact portion 110, the second contact portion 120 does not have fluidity and may be coupled to and fixed to the housing 130.

The second contact portion 120 may include a second body 121, a first signal pin 123, and a first insulator 122. One end of the second body 121 may be in electrical contact with the second ground wire of the second object, and the other end may be in electrical contact with the other end side ground wire of the flexible cable 150. For example, a hollow in which the second insulator 122 and the second signal pin 123 are inserted may be formed at one end side of the second body 120, and at the other end side of the second body 120. The flexible cable 150 may be inserted to form a hollow therein for electrically coupling the ground cable to the other end side of the flexible cable 150. The flexible cable 150 may be coupled to the other end of the second body 121 by various methods such as pressing fit or soldering. The second body 121 may be coupled to the other end of the elastic member 140. That is, since the second body 121 is fixedly coupled to the housing 130, it is not provided with elasticity by the elastic member 140, and the elastic member 140 may provide elasticity to the first body 111. Support function so that it can

The second signal pin 123 is inserted into a hollow formed inside the second body 121, one end of which is in electrical contact with the second signal line of the second object, and the other end thereof is the other end of the flexible cable 150. Electrical contact with the end side signal line is possible. For example, the second signal pin 123 may have a hollow formed therein so that the flexible cable 150 is inserted into the other end side thereof and electrically coupled with the signal line of the other end side of the flexible cable 150. The flexible cable 150 may be coupled to the other end of the second signal pin 123 by various methods such as compression fitting or soldering. The second signal pin 123 may be a general pin or a pogo pin providing elasticity, but in the present invention, the second signal pin 123 is not limited to this case. 2 Various types of pins may be used as long as the signal lines of the cable and the flexible cable can be electrically connected.

The second insulator 122 may be coupled between the second signal pin 123 and the second body 121 to electrically insulate the second signal pin 123 and the second body 121. For example, the second insulator 122 may be inserted into a hollow formed in the second body 121, and the hollow in which the second signal pin 123 may be inserted into the second insulator 122. This can be formed.

The elastic member 140 may be inserted into the housing 130 and may be coupled between the first contact portion 110 and the second contact portion 120 to provide elasticity in the axial direction. That is, as described above, the elastic member 140 may be coupled between the other end of the first contact portion 110 and the other end of the second contact portion 120 to provide elasticity to the first contact portion 110. The elastic member 140 may be a coil spring or a leaf spring. However, the elastic member 140 of the present invention is not limited to this case, and may have various other shapes as long as it can provide elasticity in the axial direction.

The flexible cable 150 may be inserted into the housing 130 and may be coupled between the other end of the first contact part 110 and the other end of the second contact part 120 to transmit a signal and a ground voltage. Since the flexible cable 150 has flexibility, the first contact portion 110 and the second contact portion 120 may be electrically connected even when the first contact portion 110 moves axially in the direction of the second contact portion 120. . The first object electrically connected to the first contact portion 110 by the flexible cable 150 and the second object electrically connected to the second contact portion 120 may electrically transmit a signal and a ground voltage.

7 is a perspective view of one side of the coupling position compensation connector 700 according to another embodiment of the present invention, and FIG. 8 is another side of the coupling position compensation connector 700 of FIG. 7. This is a perspective view. FIG. 9 is a perspective view of the housing 730 of FIG. 7, FIG. 10 is a perspective view of the first contact portion 710 of FIG. 7, and FIG. 11 is a perspective view of the second contact portion 720 of FIG. 8. 12 is a cross-sectional view of the connector 700 for compensating the position of FIG. 7.

Hereinafter, the coupling position compensating connector 700 which may be coupled to electrically connect while compensating the coupling position between the objects will be described with reference to FIGS. 7 to 12. Although not shown in the drawings, hereinafter, a case in which the coupling position compensating connector 700 couples the first object and the second object will be described. Each of the first object and the second object may be a coaxial cable or a printed circuit board. However, the coupling position compensation connector 700 according to an embodiment of the inventive concept is not limited to coupling between coaxial cables, coupling between printed circuit boards, or coupling between a printed circuit board and a coaxial cable. If it is necessary to connect and electrically connect, it can be used for the coupling of various other objects.

The coupling position compensating connector 700 may include a first contact part 710, a second contact part 720, a housing 730, an elastic body 740, and a flexible cable 750. Hereinafter, for convenience of explanation, it is assumed that the first contact portion 710 is electrically connected to the first object, and the second contact portion 720 is electrically connected to the second object.

The housing 730 may have a hollow formed therein, and the first contact portion 710 may be coupled to one end with fluidity, and the second contact portion 720 may be coupled to the other end with fluidity. A first locking jaw 735 may be formed at an inner circumferential surface of one end side of the housing 730, and the first locking jaw 735 is provided when the first contact portion 710 is provided with elasticity by the elastic member 740. The first contact portion 710 may be prevented from escaping to the outside. A second locking jaw 737 may be formed on the inner circumferential surface of the other end side of the housing 730, and the second locking jaw 737 is provided when the second contact portion 720 is elastically provided by the elastic member 740. The second contact portion 720 may be prevented from escaping to the outside. At least one of the first locking jaw 735 and the second locking jaw 737 may be a separate structure that is not integrally formed with the housing 730. The shape in which the first contact portion 710 and the second contact portion 720 couple to the housing 730 will be described in more detail below.

One end of the first contact portion 710 may be coupled to the first object to electrically contact the first signal line and the first ground line of the first object. In addition, the first contact portion 710 may be inserted into a hollow formed inside the housing 730, the outer diameter of the first contact portion 710 may be smaller than the inner diameter of the housing 730. That is, since the portion of the first contact portion 710 having the largest outer diameter has fluidity without being fixedly coupled to the inside of the housing 730, the first contact portion 710 may have various positions inside the housing 730. Therefore, it is possible to compensate the coupling position to engage with the first object.

The first contact portion 710 may include a first body 711, a first signal pin 713, and a first insulator 712. One end of the first body 711 may be in electrical contact with the first ground wire of the first object, and the other end may be in electrical contact with the ground wire of one end of the flexible cable 750. For example, a hollow in which the first insulator 712 and the first signal pin 713 are inserted may be formed at one end side of the first body 710, and at the other end side of the first body 710. The flexible cable 750 may be inserted to form a first coupling groove for electrically coupling the ground wire of one end of the flexible cable 750. The flexible cable 750 may be coupled to the first coupling groove formed at the other end of the first body 711 by various methods such as compression fitting or soldering.

One portion of an outer circumferential surface of the first body 711 may be formed to be bent outwardly so as to be engaged with one end of the elastic member 740 and to be caught by the first latching jaw 735 of the housing 730. That is, even when the first contact portion 710 is provided with elasticity by the elastic member 740 that provides elasticity in the axial direction, the bent portion of the first body 711 may catch the first hook of the housing 730. The first contact 710 may not be separated to the outside by being caught by the jaw 735. The portion of the first contact portion 710 having the largest outer diameter may be a portion that is bent outwardly, and in this case, the outer diameter of the portion that is bent outwardly may be smaller than the inner diameter of the housing 730. have.

The first signal pin 713 is inserted into the hollow formed inside the first body 711, one end of which is in electrical contact with the first signal line of the first object, and the other end of the flexible cable 750. Electrical contact with the end side signal line is possible. For example, the first signal pin 713 may have a second coupling groove for inserting the flexible cable 750 at the other end side thereof to be electrically coupled with the signal line at one end side of the flexible cable 750. The flexible cable 750 may be coupled to the second coupling groove formed at the other end of the first signal pin 713 by various methods such as compression fitting or soldering. In addition, one end side end of the first signal pin 713 may be formed to be located inside the one end side end of the first body 711. The first signal pin 713 may be a general pin or a pogo pin providing elasticity, but in the present invention, the first signal pin 713 is not limited to this case. 1 Various types of pins can be used as long as they can electrically connect the signal line and the signal line of the flexible cable.

The first insulator 712 may be coupled between the first signal pin 713 and the first body 711 to electrically insulate the first signal pin 713 and the first body 711. For example, the first insulator 712 may be inserted into a hollow formed in the first body 711, and the hollow in which the first signal pin 713 may be inserted into the first insulator 712. This can be formed.

One end of the second contact portion 720 may be coupled to the second object to electrically contact the second signal line and the second ground line of the second object. In addition, the second contact portion 720 may be inserted into a hollow formed inside the housing 730, and the outer diameter of the second contact portion 720 may be smaller than the inner diameter of the housing 730. That is, since the portion of the second contact portion 720 having the largest outer diameter has fluidity without being fixedly coupled to the inside of the housing 730, the second contact portion 720 may have various positions inside the housing 730. Therefore, it is possible to compensate the coupling position to engage with the second object.

The second contact portion 720 may include a second body 721, a second signal pin 723, and a second insulator 722. One end of the second body 721 may be in electrical contact with the second ground line of the second object, and the other end may be in electrical contact with the other end side ground line of the flexible cable 750. For example, a hollow in which the second insulator 722 and the second signal pin 723 are inserted may be formed at one end side of the second body 720, and at the other end side of the second body 720. The flexible cable 750 may be inserted to form a third coupling groove for electrically coupling the other end side ground line of the flexible cable 750. The flexible cable 750 may be coupled to the third coupling groove formed at the other end of the second body 721 by various methods such as pressing fit or soldering.

One portion of an outer circumferential surface of the second body 721 may be formed to be bent outwardly so as to be engaged with the other end of the elastic member 740 and to be caught by the second locking jaw 737 of the housing 730. That is, even when the second contact portion 720 is provided with elasticity by the elastic member 740 that provides elasticity in the axial direction, the bent portion of the second body 721 may catch the second hook of the housing 730. The second contact portion 720 may not be separated to the outside by being caught by the jaw 737. The portion of the second contact portion 720 having the largest outer diameter may be a portion that is bent outwardly, and in this case, the outer diameter of the portion that is bent outwardly may be smaller than the inner diameter of the housing 730 as described above. have.

The second signal pin 723 is inserted into the hollow formed inside the second body 721, one end of which is in electrical contact with the second signal line of the second object, and the other end thereof is the other end of the flexible cable 750. Electrical contact with the end side signal line is possible. For example, the second signal pin 723 may have a fourth coupling groove for inserting the flexible cable 750 into the other end side thereof to be electrically coupled with the signal line of the other end side of the flexible cable 750. The flexible cable 750 may be coupled to the fourth coupling groove formed at the other end of the second signal pin 723 by various methods such as compression fitting or soldering. In addition, one end side end of the second signal pin 723 may be formed to be located inside the one end side end of the second body 721. The second signal pin 723 may be a general pin or a pogo pin providing elasticity, but in the present invention, the second signal pin 723 is not limited to this case. 2 Various types of pins may be used as long as the signal lines of the cable and the flexible cable can be electrically connected.

The second insulator 722 may be coupled between the second signal pin 723 and the second body 721 to electrically insulate the second signal pin 723 and the second body 721. For example, the second insulator 722 may be inserted into a hollow formed in the second body 721, and the hollow in which the second signal pin 723 may be inserted into the second insulator 722. This can be formed.

The elastic member 740 may be inserted into the housing 730 and may be coupled between the first contact portion 710 and the second contact portion 720 to provide elasticity in the axial direction. That is, as described above, the elastic member 740 is coupled between the other end of the first contact portion 710 and the other end of the second contact portion 720 to the first contact portion 710 and the second contact portion 720. It can provide elasticity. The elastic member 740 may be a coil spring or a leaf spring. However, the elastic member 740 of the present invention is not limited to this case, and may have various other shapes as long as it can provide elasticity in the axial direction.

The flexible cable 750 may be inserted into the housing 730 and may be coupled between the other end of the first contact portion 710 and the other end of the second contact portion 720 to transmit a signal and a ground voltage. Since the flexible cable 750 is flexible, even if the first contact portion 710 moves axially in the direction of the second contact portion 720 or the second contact portion 720 moves axially in the direction of the first contact portion 710. The first contact portion 710 and the second contact portion 720 may be electrically connected to each other. The first object electrically connected to the first contact portion 710 by the flexible cable 750 and the second object electrically connected to the second contact portion 720 may electrically transmit a signal and a ground voltage.

As described above, optimal embodiments have been disclosed in the drawings and the specification. Although specific terms have been employed herein, they are used for purposes of illustration only and are not intended to limit the scope of the invention as defined in the claims or the claims. Therefore, those skilled in the art will appreciate that various modifications and equivalent embodiments are possible without departing from the scope of the present invention. Accordingly, the true scope of the present invention should be determined by the technical idea of the appended claims.

Claims (15)

In the coupling position compensation connector for electrically connecting the first object and the second object,
A first contact portion whose one end is in electrical contact with the first signal line and the first ground line of the first object;
A second contact portion whose one end is in electrical contact with a second signal line and a second ground line of the second object;
A housing having a hollow formed therein, an inner diameter larger than an outer diameter of the first contact portion, a latching jaw for fluidly coupling the first contact portion to one end side, and a second contact portion coupled and fixed to the other end side. ;
An elastic member inserted into the housing and coupled between the other end of the first contact portion and the other end of the second contact portion to provide elasticity in an axial direction; And
A flexible cable inserted into the housing and coupled between the other end of the first contact portion and the other end of the second contact portion to transfer a signal and a ground voltage;
The first contact portion,
One end of the outer circumferential surface is electrically connected to the first ground wire, the other end is electrically coupled to the ground wire of one end of the flexible cable, and the engaging end is engaged with the one end of the elastic member. A first body bent outwardly;
A first signal pin inserted into the first body, one end of which is in electrical contact with the first signal line, and the other end of which is electrically coupled to a signal line of one end of the flexible cable; And
And a first insulating part inserted into the first body to insulate the first signal pin from the first body. delete According to claim 1, Part of the outer peripheral surface of the first body formed bent outward,
The connector for one side is coupled to one end of the elastic member, when the elastic member is provided with the elastic member on the other side of the engaging jaw of the housing characterized in that the connector. The method of claim 1, wherein the second contact portion,
Inserted and fixed to the other end side of the housing, one end is in electrical contact with the second ground wire, the other end side supports the other end of the elastic member and electrically coupled with the other end side ground wire of the flexible cable Second body;
A second signal pin inserted into the second body, the one end of which is in electrical contact with the second signal line, and the other end of which is electrically coupled to the signal line of the other end of the flexible cable; And
And a second insulating part inserted into the second body to insulate the second signal pin from the second body. The method of claim 4, wherein the first body,
The flexible cable is inserted into the other end to form a first coupling groove for electrically coupling with the ground wire of one end of the flexible cable,
The first signal pin,
The flexible cable is inserted into the other end to form a second coupling groove for electrically coupling with the signal line on one end of the flexible cable,
The second body,
The flexible cable is inserted into the other end to form a third coupling groove for electrically coupling with the ground wire of the other end side of the flexible cable,
The second signal pin,
And a fourth coupling groove for inserting the flexible cable at the other end to electrically couple the signal line to the other end side of the flexible cable. The method of claim 4, wherein the first signal pin or the second signal pin,
Coupling position compensation connector, characterized in that the normal pin or pogo pin (pogo-pin) having elasticity. The method of claim 1, wherein the elastic member,
And a spring or a leaf spring coupled between the first contact portion and the second contact portion to provide elasticity in the axial direction to the first contact portion. In the coupling position compensation connector for electrically connecting the first object and the second object,
A first contact portion whose one end is in electrical contact with the first signal line and the first ground line of the first object;
A second contact portion whose one end is in electrical contact with a second signal line and a second ground line of the second object;
A hollow is formed therein, and an inner diameter is larger than an outer diameter of the first contact portion and an outer diameter of the second contact portion, and a locking jaw in which the first contact portion is fluidly coupled is formed at one end side, and the first end is formed at the other end side. A housing having a second latching jaw to which the second contact portion is fluidly coupled;
An elastic member inserted into the housing and coupled between the other end of the first contact portion and the other end of the second contact portion to provide elasticity in an axial direction; And
A flexible cable inserted into the housing and coupled between the other end of the first contact portion and the other end of the second contact portion to transfer a signal and a ground voltage;
The first contact portion,
One end of the outer circumferential surface so as to be in electrical contact with the first ground wire, the other end is electrically coupled with one end side ground wire of the flexible cable, and is engaged with the one end of the elastic member A first body portion bent outwardly;
A first signal pin inserted into the first body, one end of which is in electrical contact with the first signal line, and the other end of which is electrically coupled to a signal line of one end of the flexible cable; And
And a first insulating part inserted into the first body to insulate the first signal pin from the first body. delete The method of claim 8, wherein the portion of the outer peripheral surface of the first body bent outwardly,
The connector for one side is coupled to one end of the elastic member, the other side is caught by the first engaging jaw of the housing when the elastic member is provided with elasticity from the elastic member. The method of claim 8, wherein the second contact portion,
One end of the outer circumferential surface such that one end is in electrical contact with the second ground wire, the other end is electrically coupled with the other end side ground wire of the flexible cable, and the other end of the elastic member is engaged with the second locking jaw. A second body portion bent outwardly;
A second signal pin inserted into the second body, the one end of which is in electrical contact with the second signal line, and the other end of which is electrically coupled to the signal line of the other end of the flexible cable; And
And a second insulating part inserted into the second body to insulate the second signal pin from the second body. The method of claim 11, wherein the portion bent outward of the outer peripheral surface of the second body,
The connector for one side is coupled to the other end of the elastic member, when the elastic member is provided with elasticity, the other surface is caught on the second locking jaw of the housing, characterized in that the connector for compensation. The method of claim 11, wherein the first body,
The flexible cable is inserted into the other end to form a first coupling groove for electrically coupling with the ground wire of one end of the flexible cable,
The first signal pin,
The flexible cable is inserted into the other end to form a second coupling groove for electrically coupling with the signal line on one end of the flexible cable,
The second body,
The flexible cable is inserted into the other end to form a third coupling groove for electrically coupling with the ground wire of one end of the flexible cable,
The second signal pin,
And a fourth coupling groove for inserting the flexible cable at the other end to electrically couple the signal line at one end of the flexible cable. The method of claim 11, wherein the first signal pin or the second signal pin,
Coupling position compensation connector, characterized in that the normal pin or pogo pin (pogo-pin) having elasticity. The method of claim 8, wherein the elastic member,
And a spring or a leaf spring coupled between the first contact portion and the second contact portion to provide elasticity in the axial direction.

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