JP2018037266A - Electric connector - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide an electric connector capable of preventing contact reliability from being reduced.SOLUTION: An electric connector comprises: an insulation housing that includes at least one housing part in which an insertion port to which a flat-type conductor can be inserted is provided; and a plurality of conductive plate-like contacts (20) that is housed one housing part. Each of the plurality of conductive plate-like contacts (20), includes: a movable side contact point (221) that can be separated and elastically deformed each other, is provided to an end part closer to the insertion port, and can be electrically contacted to the flat-type conductor; and a base part (212) that is provided to the end part far from the insertion port, is exposed to the outer part of the housing, and can be connected to the base plate. The plurality of plate-like contact is laminated in a plate thickness direction, and each of the contact parts (221) is separately constructed by the elastic deformation to the flat-type conductor to be inserted to the insertion port.SELECTED DRAWING: Figure 3

Description

  The present invention relates to an electrical connector into which a flat conductor can be inserted.

  As an electrical connector into which a flat conductor such as a flexible printed wiring board (FPC) or a flexible flat cable (FFC) can be inserted, there is one described in Patent Document 1, for example. The electrical connector includes a plurality of terminals made of a single metal plate, and a housing having a receiving portion that holds the terminals and forms an insertion space into which a flat conductor can be inserted. A pair of elastic arm portions are provided to sandwich the inserted flat conductor between the front and back sides of the plate surface. Each of the pair of elastic arm portions is provided with a contact portion facing each other and capable of contacting the flat conductor.

JP2015-35347A

  However, in the electrical connector, one elastic arm portion of the pair of elastic arm portions bends one metal plate, and the other elastic arm portion is formed in parallel with the one elastic arm portion in the plate thickness direction. have. For this reason, it is difficult to adjust the height of the two contact portions of the two elastic arm portions formed in parallel so as to be in contact with the flat conductor evenly. There is a case where only one of these can be brought into contact with the flat conductor. In such a case, if a foreign object adheres to one contact portion that contacts the flat conductor, even if no foreign object adheres to the other contact portion that does not contact the flat conductor, Contact failure occurs with the electrical connector, and contact reliability is reduced. Further, in the electrical connector, the contacts that face each other and can contact the flat conductor cannot be realized completely.

  Then, this invention makes it a subject to provide the electrical connector which can improve contact reliability.

The electrical connector of the present invention is
An insulating housing having at least one accommodating portion provided with an insertion port into which a flat conductor can be inserted;
A plurality of conductive plate contacts housed in one of the housing parts;
With
Each of the plurality of plate-like contacts can be elastically deformed independently of each other, and is provided at an end portion closer to the insertion port, and can be electrically contacted with the flat conductor. A base that is provided at an end far from the insertion port and is exposed to the outside of the housing and connectable to a substrate;
The plurality of plate-like contacts are stacked in the plate thickness direction, and each of the contact portions is configured to be capable of being pressed independently by elastic deformation against the flat conductor inserted into the insertion port. .

  According to the electrical connector of the present invention, the housing having at least one accommodating portion provided with the insertion port into which the flat conductor can be inserted, and the one accommodating portion are accommodated in a stacked state in the plate thickness direction. And a plurality of plate-like contacts. Each of the movable contact portions of the plurality of plate-like contacts is configured to be able to be pressed independently against the flat conductor by elastic deformation. Thereby, the fall of contact reliability can be prevented.

The perspective view of the electrical connector of one Embodiment of this invention. Sectional drawing along the II-II line | wire of the electrical connector of FIG. The perspective view of the plate-shaped contact of the electrical connector of FIG. The perspective view of the electrical connector of FIG. 1 when a rotation lever exists in an open position. Sectional drawing along the VV line | wire of FIG. The perspective view of the electrical connector of FIG. 1 when a rotation lever exists in a closed position. Sectional drawing along the VII-VII line of FIG. The perspective view which shows the 1st example of the plate-shaped contact of the electrical connector of FIG. FIG. 9 is a perspective view of one of the plate contacts of FIG. 8. The perspective view which shows the 2nd example of the plate-shaped contact of the electrical connector of FIG. The perspective view which shows the 3rd example of the plate-shaped contact of the electrical connector of FIG. Sectional drawing which shows the 4th example of the plate-shaped contact of the electrical connector of FIG. The perspective view which shows the other example of the electrical connector of FIG. Sectional drawing along the XIV-XIV line of FIG.

  Hereinafter, an embodiment of the present invention will be described with reference to the accompanying drawings. In the following description, terms indicating specific directions or positions (for example, terms including “up”, “down”, “right”, “left”) are used as necessary. Is for facilitating understanding of the invention with reference to the drawings, and the technical scope of the present invention is not limited by the meaning of these terms. Further, the following description is merely illustrative in nature and is not intended to limit the present invention, its application, or its use. Furthermore, the drawings are schematic, and the ratios of dimensions and the like do not necessarily match the actual ones.

  As shown in FIG. 1, an electrical connector 100 according to an embodiment of the present invention includes an insulating housing 10 having at least one housing portion 11 provided with an insertion port 12 into which a flat conductor can be inserted, and one electrical connector 100. And a plurality of conductive plate contacts 20 accommodated in the accommodating portion 11.

  Specifically, as shown in FIG. 1, the housing 10 has a substantially rectangular plate shape, and has a plurality of accommodating portions 11 arranged in parallel at intervals in the longitudinal direction, In the accommodating portion 11, two plate contacts 20 are accommodated in a state where they are stacked in the thickness direction (longitudinal direction of the housing 10). An insertion port 12 is provided on one of the side surfaces of the housing 10 extending in the longitudinal direction (the left side surface in FIG. 1).

  As shown in FIGS. 1 and 2, each accommodating portion 11 has a rectangular shape in a side view extending in the longitudinal direction of the housing 10, extends in the short direction of the housing 10, and has both ends in the short direction of the housing 10. It is open. An end portion on the left side in FIG. 2 of each accommodating portion 11 is connected to the insertion port 12. In addition, a rotation lever 30 that is rotatably supported by the housing 10 is provided at the right end of each housing portion 11 in FIG. The rotating lever 30 extends in the longitudinal direction of the housing 10 and crosses all the accommodating portions 11.

  In addition, a part of each accommodating part 11 on the side of the insertion port 12 is mutually connected to a part of the adjacent accommodating part 11 on the side of the insertion port 12, and a flexible printed wiring board (FPC) or a flexible flat cable (FFC). ) And the like, which can accommodate a part of a flat conductor.

  As shown in FIG. 1, the insertion opening 12 opens over substantially the entire side surface of the housing 10 so that a flat conductor can be inserted. All the accommodating portions 11 are connected to the insertion port 12. Further, as shown in FIG. 2, an engaging protrusion 215 of a first contact portion 21 of each plate-like contact 20 to be described later can be locked to the lower end (lower end portion of FIG. 2) of the insertion port 12. An engaging hole 121 is provided.

  Each plate-like contact 20 is composed of a conductive plate member that can be elastically deformed, and, as shown in FIG. The first contact portion 21, the second contact portion 22 that extends along the first contact portion 21 and is arranged in parallel with the first contact portion 21, and the first contact portion 21 and the second contact portion 22 are connected to each other. The connection part 23 is comprised. As shown in FIG. 3, each plate-like contact 20 has the same shape as a whole, and is laminated so as to be elastically deformable independently from each other in a state in which the outer shapes viewed from the plate thickness direction match.

  One end of the first contact portion 21 closer to the insertion port 12 is an example of a fixed-side contact portion that protrudes upwardly toward the second contact portion 22 (upward in FIG. 2) in a triangular shape. A first contact portion 211 and a locking projection 215 extending from the first contact portion 211 toward the insertion port 12 along the bottom wall portion of the housing portion 11 are provided. The first contact portion 211 is disposed in the recess 111, and the engagement protrusion 215 is engaged with the engagement hole 121 of the insertion port 12 of the housing 10. Further, at the end of the first contact portion 21 far from the insertion port 12, there are a base portion 212 exposed to the outside of the housing 10, and a positioning claw portion 213 disposed on the first contact portion 211 side with respect to the base portion 212. A positioning recess 214 disposed on the first contact portion 211 side with respect to the positioning claw portion 213 is provided. The base 212 is connected to the connection terminal of the circuit board by, for example, solder. The positioning claw portion 213 is engaged with an end portion of the bottom wall portion of the housing portion 11 that is far from the insertion port 12. Further, the positioning recess 214 has a downwardly curved shape and is arranged so that a rotation shaft portion 31 of the rotation lever 30 described later is positioned, and is accommodated together with the positioning claw portion 213 and the locking projection 214. The position of each plate-like contact 20 in the part 11 is determined.

  The end of the second contact portion 22 closer to the insertion port 12 is a triangular shape that faces the first contact portion 211 and is downwardly convex toward the first contact portion 211 (downward in FIG. 2). A second contact portion 221 is provided as an example of the movable contact portion that protrudes toward the center. The second contact portion 221 is also disposed in the recess 111. In addition, a pressed portion 222 that is pressed by a pressing portion 32 of the rotation lever 30 described later is provided at an end portion of the second contact portion 22 far from the insertion port 12.

  The connection portion 23 extends in a direction intersecting the first contact portion 21 and the second contact portion 22, and between the first contact portion 211 and the base portion 212, more specifically, the connection portion 23 includes the recess 111 and a rotation lever. 30. Thereby, the second contact portion 22 of each plate-like contact 20 has the second contact portion 221 downward in FIG. 2 with the connection portion 23 as a fulcrum when the pressed portion 222 is pressed upward in FIG. In order to bend, they can be elastically deformed independently of each other.

  As shown in FIG. 1, the rotation lever 30 has a substantially rectangular box shape, extends in the longitudinal direction of the housing 10 so as to cross all the accommodating portions 11, and is rotatably supported by the housing 10. ing. As shown in FIG. 2, the rotation lever 30 includes a rotation shaft portion 31 and a pressing portion 32 connected to the rotation shaft portion 31.

  Further, as shown in FIG. 1, the rotating lever 30 has a trapezoidal protrusion 33 in the middle of the housing 10 in the longitudinal direction. By operating this protrusion 33, the rotation lever 30 is rotated. The rotating lever 30 is a direction (upward in FIG. 2) in which the protruding portion 33 is substantially orthogonal to the extending direction (left and right direction in FIG. 2) of the accommodating portion 11 in a plan view as viewed along the longitudinal direction of the housing 10. ) And a closed position (see FIGS. 6 and 7) in which the protruding portion 33 extends in a direction substantially parallel to the extending direction of the accommodating portion 11. .

  As shown in FIG. 2, the rotation shaft portion 31 has a circular shape in a plan view seen along the longitudinal direction of the housing 10, and is provided at an end portion on the opposite side of the protruding portion 33. The rotation shaft portion 31 is disposed between the connection portion 23 and the base portion 212 of the first contact portion 21 and between the first contact portion 21 and the second contact portion 22, and extends along the longitudinal direction of the housing 10. The housing 10 extends from the housing portion 11 at one end to the housing portion 11 at the other end. The axis of the rotation shaft portion 31 is the rotation axis of the rotation lever 30.

  The pressing portion 32 is curved and protrudes from the rotating shaft portion 31 in a direction (leftward in FIG. 2) intersecting the protruding direction of the protrusion 33 (upward in FIG. 2). The pressing portion 32 presses the pressed portion 222 of the second contact portion 22 of each plate-like contact 20 in a direction away from the first contact portion 21 (upward in FIG. 2) as the rotation lever 30 rotates. It is possible. That is, in a plan view as viewed from the longitudinal direction of the housing 10, the total length of the diameter of the rotation shaft portion 31 and the length of the pressing portion 32 in the protruding direction is the first contact portion 21 and the second contact portion 22. It is larger than the length between the pressed part 222.

  Next, the operation of the electrical connector 100 when the flat conductor 200 is connected will be described with reference to FIGS. 4 and 5 show the electrical connector 100 when the rotating lever 30 is in the open position, and FIGS. 6 and 7 show the electrical connector 100 when the rotating lever 30 is in the closed position. Yes.

  First, as shown in FIG. 4, the flat conductor 200 is inserted into the recess 111 from the insertion port 12 and between the first contact portion 211 and the second contact portion 221 of each plate-like contact 20.

  At this time, as shown in FIG. 5, the rotation lever 30 has a direction in which the protruding portion 33 is substantially orthogonal to the extending direction of the accommodating portion 11 in a plan view as viewed along the longitudinal direction of the housing 10 (see FIG. 5 in an open position extending upward). In this open position, the pressing portion 32 extends from the rotating shaft portion 31 in the extending direction of the accommodating portion 11 (leftward in FIG. 5), and the pressed portion 222 of each plate-like contact 20 is the pressing portion of the rotating lever 30. It is in the natural state which is not pressed by 32. Each of the first contact portion 211 and the second contact portion 221 is in contact with the flat conductor 200 in a state where the flat conductor 200 can be inserted into and removed from the recess 111.

  After the flat conductor 200 is inserted into the recess 111 and between the first contact portion 211 and the second contact portion 221 of each plate-like contact 20, until the front end surface of the flat conductor 200 contacts the bottom surface 112 of the recess 111. The protrusion 33 is operated to rotate the turning lever 30 in the direction away from the insertion port 12 from the open position shown in FIG. 4 to the closed position shown in FIG.

  At this time, as shown in FIG. 7, the pressing portion 32 is a direction substantially orthogonal to the extending direction of the accommodating portion 11 from the position extending in the extending direction of the accommodating portion 11 as the rotating lever 30 rotates. It rotates to the position extended (FIG. 7 upward), and presses the to-be-pressed part 222 of each plate-shaped contact 20 in the direction away from the 1st contact part 21 (upward in FIG. 7). When the pressed part 222 is pressed in the direction away from the first contact part 21, the pressed part 222 of each plate-like contact 20 is pushed up in the direction away from the first contact part 21 and elastically deformed, thereby connecting With the portion 23 as a fulcrum, the second contact portion 221 bends so as to be pushed down in a direction approaching the first contact portion 21. As a result, the second contact portion 221 elastically presses the flat conductor 200, and the contact pressure of the first contact portion 211 and the second contact portion 221 with respect to the flat conductor 200 increases.

  On the other hand, when the rotating lever 30 is rotated from the closed position to the open position in a direction approaching the insertion port 12, the pressing portion 32 extends in a direction substantially orthogonal to the extending direction of the accommodating portion 11. It rotates to the position extended in the extending direction of the accommodating part 11 from the position. Accordingly, the pressed portion 222 of each plate-like contact 20 that has been pressed in the direction away from the first contact portion 21 by the pressing portion 32 returns to the natural state shown in FIG. 5, and the flat shape by the second contact portion 221. The pressure on the conductor 200 is released, and the flat conductor 200 is brought into a state where it can be inserted into and removed from the recess 111.

  In the electrical connector 100, the housing 10 having the accommodating portion 11 provided with the insertion port 12 into which the flat conductor 200 can be inserted, and the two accommodated in the one accommodating portion 11 in a stacked state in the plate thickness direction. Two plate-like contacts 20 are provided. Each of the second contact portions 221 of the two plate contacts 20 is configured to be able to be pressed independently against the flat conductor 200 by elastic deformation. Thereby, even if a foreign object adheres to one second contact portion 221, the flat conductor 200 can be pressed by the other second contact portion 221, and the contact reliability between the electrical connector 100 and the flat conductor 200 can be improved. Decline can be prevented.

  In other words, two plate contacts 20 that are conventionally one are accommodated in one accommodating portion 11 as a set, and the number of contact portions that contact one connection terminal of the flat conductor 200 is doubled. Thus, stable contact with the flat conductor 200 can be maintained even when vibration and impact are applied. It is functionally fatal to cause chattering due to separation of the contact portion and the flat conductor 200 due to resonance or simple reaction caused by application of vibration and impact. If the number of contact portions is doubled, the possibility of chattering can be reduced by at least half. In addition, since the four contact portions can be arranged on one line in the vertical direction, the degree of freedom in designing the plate contact 20 can be increased.

  As described above, the electrical connector 100 can realize a structure that could not be realized by a conventional electrical connector, and can realize an electrical connector having high vibration resistance required for electronic parts for automobiles and the like. In addition, since two contacts are arranged in one accommodating part, the conductor cross-sectional area increases as compared with the case where one contact is arranged in one accommodating part. For this reason, it becomes possible to flow more electric current than the conventional electrical connector with which one contact is arrange | positioned in one accommodating part.

  As shown in FIGS. 8 and 9, a gap forming member 41 that forms a gap 40 between the plate contacts 20 may be provided on at least one of the opposing surfaces of the two plate contacts 20. Thus, by providing the gap forming member 41 and forming the gap 40 between the two plate contacts 20, each plate contact 20 can be elastically deformed easily and more reliably independently.

  In addition, the gap 40 can be more reliably maintained by providing a plurality of the gap forming members 41 in the middle between the first contact portion 211 and the base portion 212 of the first contact portion 21. Specifically, as shown in FIG. 9, two regions to which the connection portions 23 of the first contact portion 21 and the second contact portion 22 are connected, and a base portion 212 and a positioning claw portion 213 of the first contact portion 21, By providing it in any two of the three regions, the gap 40 can be more reliably maintained.

  In addition, when the gap 40 is provided between the two plate contacts 20, if the base 212 is connected to the substrate using solder, the gap 40 is penetrated by the solder or the flux due to a capillary phenomenon, so that the two plates There is a risk of sticking the contact. In order to prevent the sticking of the plate-like contact 20 due to such solder, for example, as shown in FIG. 10, the first contact portion 211 of the first contact portion 21 of the two plate-like contacts 20 and the middle of the base portion 212 than A plating portion 42 that can prevent molten solder from penetrating into the gap 40 is provided on each facing surface of the portion close to the base portion 212, that is, the portion between the connection portion 23 of the first contact portion 21 and the positioning claw portion 213. Just do it.

  The plating part 42 is made of, for example, a nickel-rich nickel-gold alloy, and the nickel-gold alloy functions as a nickel barrier (solder wetting prohibition zone). For this reason, the penetration of the molten solder into the gap 40 is prevented by providing the plated portion 42 on the opposing surface of each plate-like contact 20 that forms the gap 40.

  Further, the two plate contacts 20 are not limited to the same shape as a whole, and as shown in FIG. 11, at least the shapes of the first contact portion 211 and the second contact portion 221 are different. Good. Thus, since the shape of the laminated plate-like contacts 20 can be arbitrarily changed, the resonance point of the two plate-like contacts 20 can be arbitrarily set. Thereby, the electrical connector 100 resistant to vibration can be realized.

  Further, in the electrical connector 100, a pair of the first contact portion 211 and the second contact portion 221 that are opposed to each other for each plate-like contact 20 is provided, but this is not a limitation. For example, each plate-like contact 20 may be provided with a plurality of sets of contact portions facing each other. Further, as shown in FIG. 12, a plate-like contact 120 having only the first contact portion 211 can be used.

  The insertion port 12 is not limited to being provided on one of the side surfaces extending in the longitudinal direction of the housing 10. For example, as shown in FIG. 13, the insertion port 12 may be provided on the upper surface of the housing 10. In this case, for example, as shown in FIG. 14, the housing 10 is provided with a plurality of accommodating portions 11 that are open at both ends in the vertical direction, and a plurality of plate contacts 20 are stacked in the thickness direction in one accommodating portion 11. Contained in state. The accommodating portion 11 is provided with an insertion portion 12 and a concave portion 111 at the end on the right side in the short direction (right side in FIG. 14), and the rotation lever 30 is disposed at the end on the left side in the short direction (left side in FIG. 14). ing. Further, the plate-like contact 20 includes a lateral member 24 extending along the bottom surface (the lower surface in FIG. 14) of the housing 10 in the lateral direction of the housing 10 (left and right direction in FIG. 14), and the lateral member 24. A first contact portion 21 extending upward from the right end portion of the horizontal member 24, a longitudinal member 25 extending upward from the left end portion of the lateral member 24, and an oblique direction from the longitudinal member 25 toward the first contact portion 21. The second contact portion 22 includes a base portion 223 that extends upward and an arm portion 224 that extends upward from the base portion 223 along the first contact portion 21. A positioning recess 214 is provided at the tip of the longitudinal member 25. In addition, a pressed portion 222 is provided on the arm portion 224 of the second contact portion 21, and the second contact portion 221 faces rightward with the bent portion 225 between the base portion 223 and the arm portion 224 as a fulcrum (first direction It can be elastically deformed so as to bend in a direction approaching the contact portion 211.

  In the electrical connector 100, a so-called ZIF backlock electrical connector has been described. However, the present invention is not limited to this, and is applicable to electrical connectors of other structures (such as NON-ZIF system). .

  The number of plate contacts 20 to be stacked is not limited to two and may be three or more.

  Each plate-like contact 20 may be a tuning fork contact or a leaf contact.

  As mentioned above, although various embodiment in this invention was described in detail with reference to drawings, finally the various aspect of this invention is demonstrated.

The electrical connector of the first aspect of the present invention is
An insulating housing having at least one accommodating portion provided with an insertion port into which a flat conductor can be inserted;
A plurality of conductive plate contacts housed in one of the housing parts;
With
Each of the plurality of plate-like contacts can be elastically deformed independently of each other, and is provided at an end portion closer to the insertion port, and can be electrically contacted with the flat conductor. A base that is provided at an end far from the insertion port and is exposed to the outside of the housing and connectable to a substrate;
The plurality of plate-like contacts are stacked in the plate thickness direction, and each of the contact portions is configured to be capable of being pressed independently by elastic deformation against the flat conductor inserted into the insertion port. .

  According to the electrical connector of the first aspect, even if a foreign object adheres to one contact portion of the plurality of plate contacts, the flat conductor can be pressed by the movable contact portion of the other plate contact. Thus, it is possible to prevent a decrease in contact reliability between the electrical connector and the flat conductor.

In the electrical connector of the second aspect of the present invention,
At least the contact portions of the plurality of plate contacts have the same shape.

In the electrical connector of the third aspect of the present invention,
At least the contact portions of the plurality of plate contacts are different in shape.

  According to the electrical connector of the 2nd mode and the 3rd mode, since the shape of the laminated plate contact can be changed arbitrarily, the resonance point of a plurality of plate contacts can be set arbitrarily. Thereby, the electrical connector 100 resistant to vibration can be realized.

In the electrical connector of the fourth aspect of the present invention,
A gap forming member for forming a gap between the adjacent plate contacts is provided on at least one of the opposing surfaces of the adjacent plate contacts.

  According to the electrical connector of the fourth aspect, each plate-like contact 20 can be elastically deformed easily and more reliably independently.

In the electrical connector of the fifth aspect of the present invention,
A plurality of the gap forming members are provided between the contact portion and the base portion.

  According to the electrical connector of the fifth aspect, it is possible to more reliably maintain a gap between a plurality of adjacent plate contacts.

In the electrical connector of the sixth aspect of the present invention,
A plating part is provided on each facing surface of a portion closer to the base than the middle of the contact part and the base of the plurality of adjacent plate contacts.

  According to the electrical connector of the sixth aspect, for example, when the base portion is connected to a substrate or the like using solder by configuring the plated portion to function as a nickel barrier, between the adjacent plate contacts It is possible to prevent the molten solder from penetrating into the gap and fixing the plurality of plate contacts.

In the electrical connector of the seventh aspect of the present invention,
Each of the plurality of plate contacts is
A fixed contact portion that can contact the flat conductor is disposed at an end portion closer to the insertion port, and a first contact portion in which the base portion is disposed at an end portion far from the insertion port. When,
The movable member that is provided at an end closer to the insertion port so as to face the fixed contact portion, can contact the flat conductor, and can approach and separate from the fixed contact portion. A side contact portion, a second contact portion extending along the first contact portion and arranged in parallel with the first contact portion;
The first contact portion and the second contact portion are connected to each other by extending in a direction intersecting the extending direction of the first contact portion and the second contact portion from between the fixed contact portion and the base portion. A connection,
Have
The plate of the plurality of plate contacts is provided between the connection portion and the base portion of the plurality of plate contacts in the housing and between the first contact portion and the second contact portion. A pivot shaft extending in the thickness direction;
The movable side is provided so as to be rotatable around the rotation shaft portion, and the end of the second contact portion far from the insertion port is pressed in the direction away from the first contact portion along with the rotation. A pressing part for bringing the contact part close to the fixed-side contact part;
And further comprising a pivoting lever.

  In the electrical connector of the seventh aspect, even if a foreign object adheres to one contact portion of the plurality of plate contacts, the flat conductor can be pressed by the movable contact portion of the other plate contact. A decrease in contact reliability between the electrical connector and the flat conductor can be prevented.

  In addition, it can be made to show the effect which each has by combining arbitrary embodiment or modification of the said various embodiment or modification suitably. In addition, combinations of the embodiments, combinations of the examples, or combinations of the embodiments and examples are possible, and combinations of features in different embodiments or examples are also possible.

  The electrical connector of the present invention can be applied to, for example, electronic parts for automobiles.

DESCRIPTION OF SYMBOLS 10 Housing 11 Housing | casing part 111 Concave part 112 Bottom face 12 Insertion slot 121 Engagement hole part 20 Plate-shaped contact 21 1st contact part 211 1st contact part (fixed side contact part)
212 Base part 213 Positioning claw part 214 Positioning recessed part 215 Engaging projection part 22 Second contact part 221 Second contact part (movable side contact part)
222 pressed part 223 base part 224 arm part 23 connection part 24 transverse member 25 longitudinal member 30 turning lever 31 turning shaft part 32 pushing part 33 protruding part 40 gap 41 gap forming member 42 plating part 100 electrical connector

Claims (7)

An insulating housing having at least one accommodating portion provided with an insertion port into which a flat conductor can be inserted;
A plurality of conductive plate contacts housed in one of the housing parts;
With
Each of the plurality of plate-like contacts can be elastically deformed independently of each other, and is provided at an end portion closer to the insertion port, and can be electrically contacted with the flat conductor. A base that is provided at an end far from the insertion port and is exposed to the outside of the housing and connectable to a substrate;
The plurality of plate contacts are stacked in the plate thickness direction, and each of the contact portions is configured to be capable of being independently pressed by elastic deformation with respect to the flat conductor inserted into the insertion port. Electrical connector.   The electrical connector according to claim 1, wherein at least the contact portions of the plurality of plate-like contacts have the same shape.   The electrical connector according to claim 1, wherein at least the contact portions of the plurality of plate-like contacts have different shapes.   4. The gap forming member for forming a gap between the plurality of adjacent plate contacts is provided on at least one of the opposing surfaces of the plurality of adjacent plate contacts. 5. Electrical connector as described in one.   The electrical connector according to claim 4, wherein a plurality of the gap forming members are provided between the contact portion and the base portion.   6. The electrical connector according to claim 4, further comprising a plating portion on each opposing surface of a portion closer to the base than the middle of the contact portion and the base of the plurality of adjacent plate-like contacts. Each of the plurality of plate contacts is
A fixed contact portion that can contact the flat conductor is disposed at an end portion closer to the insertion port, and a first contact portion in which the base portion is disposed at an end portion far from the insertion port. When,
The movable member that is provided at an end closer to the insertion port so as to face the fixed contact portion, can contact the flat conductor, and can approach and separate from the fixed contact portion. A side contact portion, a second contact portion extending along the first contact portion and arranged in parallel with the first contact portion;
The first contact portion and the second contact portion are connected to each other by extending in a direction intersecting the extending direction of the first contact portion and the second contact portion from between the fixed contact portion and the base portion. A connection,
Have
The plate of the plurality of plate contacts is provided between the connection portion and the base portion of the plurality of plate contacts in the housing and between the first contact portion and the second contact portion. A pivot shaft extending in the thickness direction;
The movable side is provided so as to be rotatable around the rotation shaft portion, and the end of the second contact portion far from the insertion port is pressed in the direction away from the first contact portion along with the rotation. A pressing part for bringing the contact part close to the fixed-side contact part;
The electrical connector according to any one of claims 1 to 6, further comprising a pivot lever having:

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