JP2010244809A - Electric connector - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide an electric connector in which reliability is greatly improved at a low cost and in a simple structure. <P>SOLUTION: The electric connector 10 includes a locking member 11d for stopping an elastic dislocation of a movable beam 12a by contacting at a suitable dislocation position to movable beams 12a of a conductive connector, and when so-called empty closing operation, that is, a shifting operation of an actuator 13 at non-insertion of a signal transmission medium is carried out, and if the movable beam 12a runs over a certain dislocation position, the movable beam 12a contacts with a dislocation locking member 11d and an excessive elastic dislocation of the movable beam 12a is prevented, whereby, a plastic deformation of the movable beams 12a due to the empty closing of the actuator 13 and lowering of productivity are prevented excellently. <P>COPYRIGHT: (C)2011,JPO&INPIT

Description

  The present invention relates to an electrical connector configured to fix or release a signal transmission medium inserted into a main body housing by a reciprocating operation of an actuator.

  In general, electrical connectors are widely used in various electrical devices to electrically connect various signal transmission media such as flexible printed circuit (FPC) wiring boards and flexible flat cables (FFC). It has been. For example, in the electrical connector described in Patent Documents 1 and 2 below, a signal transmission medium made of FPC, FFC, or the like is inserted inward from an insertion port provided in a front end portion of a main body housing (insulator), Thereafter, the actuator as the medium fixing operation means is rotated so as to be tilted toward the closing position.

  The actuator as the medium fixing operation means is provided on the insertion port side of the main body housing or the rear end portion on the opposite side thereof so as to be able to reciprocate. For example, the front side or the rear side from the release position raised from the main body housing. It is designed to be rotated to the clamping position by being pushed down. Then, due to the pressing force of the actuator rotated to the clamping position, the movable beam of the conductive contact arranged in the main body housing is elastically displaced until it comes into pressure contact with the signal transmission medium (FPC, FFC). The signal transmission medium is fixed by the clamping action of the elastically displaced conductive contact.

JP 2008-052992 A Japanese Patent Laid-Open No. 2004-221667

  However, in an electrical connector equipped with such an actuator, the actuator is so-called closed by accidentally touching the actuator in a non-inserted state in which no signal transmission medium (FPC, FFC) is inserted in the main body housing. Operation may be performed. When the signal transmission medium is not inserted, there is no signal transmission medium to be contacted with the conductive contact. Therefore, the displacement of the movable beam of the conductive contact becomes excessively large due to the above-described empty closing operation of the actuator, and plasticity is increased. Deformation may occur. Such plastic deformation of the conductive contact tends to become prominent particularly when the elastic limit of the conductive contact is lowered due to a reduction in the height or miniaturization of the electrical connector, and the contact pressure of the conductive contact with respect to the signal transmission medium is low. This may be sufficient, or the amount of displacement of the movable beam of the conductive contact may increase, resulting in a narrow space for inserting the signal transmission medium, which may make it difficult or impossible to insert the signal transmission medium.

  Further, when the actuator is rotated to the closing position by such an empty closing operation, the actuator may be lightly fitted into the locked state due to the pressing action of the cam member, etc. The operation of causing the actuator to return to the original release position again takes a lot of time, which may affect the productivity of the entire electrical connector.

  On the other hand, some conventional electrical connectors are provided with a locking portion 1a on the conductive contact 1 as shown in FIG. 14, for example. However, the engaging portion 1a only restricts the mounting position of the conductive contact 1 with respect to the main body housing 2, and does not restrict the elastic displacement amount of the conductive contact 1 as is apparent from FIG. That is, even in an electrical connector provided with such a locking portion 1a, the possibility of plastic deformation of the conductive contacts and a decrease in productivity cannot be solved.

  Therefore, the present invention provides an electrical connector that can improve the reliability and productivity by preventing the plastic deformation of the conductive contact due to the so-called empty closing operation in the actuator with a simple configuration. Objective.

  In order to achieve the above object, according to the present invention, a movable beam of a conductive contact is elastically displaced by moving an actuator movably provided on a main body housing from a release position to a clamping position, and a contact portion provided on the movable beam. In an electrical connector configured to contact a signal transmission medium inserted into the main body housing, the displacement locking that stops the elastic displacement of the movable beam by contacting the movable beam at an appropriate displacement position. The structure is provided with a member.

  According to the present invention having such a configuration, when a so-called idle closing operation, which is an operation of moving the actuator when the signal transmission medium is not inserted, is performed, the movable beam exceeds a certain displacement position. Further, the movable beam abuts against the displacement locking member to prevent excessive elastic displacement of the movable beam, and the plastic deformation of the movable beam and the decrease in productivity due to the idle closing of the actuator are prevented well. Yes.

  The displacement locking member according to the present invention is preferably provided so as to constitute a part of the main body housing or the conductive contact.

  According to the present invention having such a configuration, the displacement locking member is integrally formed together with the main body housing or the conductive contact, so that productivity can be improved.

  Moreover, it is desirable that the movable beam or the displacement locking member according to the present invention is provided with a protruding contact portion provided so as to be able to contact the displacement locking member or the movable beam.

  According to the present invention having such a configuration, the protruding contact portion of the movable beam is reliably brought into contact with the displacement locking member.

  Further, it is desirable that the displacement locking member according to the present invention is disposed so as to contact the movable beam at a displacement position immediately before the displacement position at which the movable beam is plastically deformed.

  According to the present invention having such a configuration, excessive displacement of the movable beam is prevented, and plastic deformation is reliably avoided.

  The displacement locking member according to the present invention is preferably disposed so that the contact portion of the movable beam contacts the movable beam at a displacement position immediately after the displacement position where the movable beam contacts the signal transmission medium.

  According to the present invention having such a configuration, it is possible to prevent the movable beam from coming into contact with the signal transmission medium.

  The conductive contact according to the present invention has a fixed beam attached to the main body housing in a substantially immovable state, and the fixed beam is provided with a protruding contact portion that always contacts the displacement locking member. It is desirable that

  According to the present invention having such a configuration, the protruding contact portion of the fixed beam is surely brought into contact with the displacement locking member, and the fixed beam is stably held against the deformation locking member. It has become so.

  As described above, the electrical connector according to the present invention is provided with the displacement locking member that stops the elastic displacement of the movable beam by contacting the movable beam of the conductive connector at an appropriate displacement position. When a so-called empty closing operation, which is a movement operation of the actuator at the time of insertion, is performed, when the movable beam exceeds a certain displacement position, the movable beam comes into contact with the displacement locking member and the movable beam is excessive. Since the elastic displacement is prevented and plastic deformation of the movable beam and decrease in productivity due to the idle closing of the actuator are well prevented, the reliability of the electrical connector is greatly improved at low cost. be able to.

BRIEF DESCRIPTION OF THE DRAWINGS It is an external appearance perspective explanatory view which represented the whole structure of the state by which the actuator was stood | started up in the cancellation | release position in the electrical connector concerning the 1st Embodiment of this invention from the back side. It is a cross-sectional explanatory drawing along the II-II line | wire in FIG. FIG. 3 is an external perspective explanatory view showing a transverse section along a conductive contact mounting portion of the electrical connector shown in FIGS. 1 and 2. BRIEF DESCRIPTION OF THE DRAWINGS It is an external appearance perspective explanatory view which represented the whole structure of the state by which the actuator was pushed down to the clamping position in the electrical connector concerning the 1st Embodiment of this invention from the back side. FIG. 5 is a cross sectional explanatory view taken along line VV in FIG. 4. FIG. 6 is an external perspective explanatory view showing a transverse section along a conductive contact mounting portion of the electrical connector shown in FIGS. 4 and 5. FIG. 4 is a cross-sectional explanatory view corresponding to FIG. 2 showing a state immediately before a signal transmission medium is inserted into the electrical connector shown in FIGS. 1 to 3. FIG. 8 is a cross-sectional explanatory view corresponding to FIG. 2 showing a state immediately after the signal transmission medium is inserted from the state of FIG. 7. FIG. 9 is a cross-sectional explanatory view corresponding to FIG. 2 showing a state where the actuator is pushed down to the clamping position from the state of FIG. 8. FIG. 9 is a cross-sectional explanatory view corresponding to FIG. 2 illustrating an overall configuration in a state where an actuator is raised to a release position in an electrical connector according to a second embodiment of the present invention. It is an external appearance perspective explanatory view showing the cross section along the conductive contact mounting site | part of the electrical connector shown by FIG. FIG. 11 is a cross-sectional explanatory view corresponding to FIG. 10 showing a state where the actuator is pushed down to the clamping position from the state of FIG. 10. It is an external appearance perspective explanatory view showing the cross section along the conductive contact mounting site | part of the electrical connector shown by FIG. It is an external appearance perspective explanatory view showing the whole composition of the state where the actuator stood up in the release position in the conventional electrical connector from the back side. FIG. 15 is an external perspective view illustrating the entire configuration of the conventional electrical connector illustrated in FIG. 14 in a state in which the actuator is pushed down to the holding position from the back side.

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

  First, the electrical connector 10 according to the first embodiment shown in FIGS. 1 to 3 includes a main body housing (insulator) 11 made of an insulating member extending in an elongated shape. A medium into which a signal transmission medium F composed of a flexible printed circuit (FPC) wiring board, a flexible flat cable (FFC), or the like is inserted in the front end side (left end side in FIG. 2) of the main body housing 11. The insertion port 11a is provided so as to have a horizontally elongated opening shape. Further, a component attachment port 11b for mounting a conductive contact 12 and an actuator 13 as medium fixing operation means, which will be described later, on the connector rear end side (the right end side in FIG. 2) opposite to the medium insertion port 11a. Is provided.

  That is, the main body housing 11 is formed from a thin, hollow housing, and a plurality of thin plate-shaped metal members having a side surface that is substantially H-shaped inside the main body housing 11. Conductive contacts 12 are inserted. In addition, an actuator (medium fixing operation means) 13 is arranged so as to stand on the rear end portion of the connector of the main body housing 11 (right end portion in FIG. 2). It is configured to be rotated so as to be pushed down toward the right side in FIG.

  The conductive contacts 12 are arranged in a multipolar shape at appropriate intervals along the width direction (longitudinal direction) of the main body housing 11, and in the present embodiment, different shapes are alternately arranged. Yes. Each of these conductive contacts 12 is used for either signal transmission or shielding. As will be described later, one end portion (the right end portion or the left end portion in FIG. 2) of each conductive contact 12 is printed circuit board B. (Refer to FIG. 2).

  As described above, each of the conductive contacts 12 is mounted so as to be pushed in from the component attachment port 11b provided on the rear end side of the connector toward the front side (left side in FIG. 2). (FPC or FFC) Each of the conductive contacts 12 is arranged at a position corresponding to either a signal transmission conductive path (signal line) or a shield conductive path (shield line) formed on the front or back surface of F. Yes. Each of these conductive contacts 12 has a movable beam 12a and a fixed beam 12b each made of a pair of elongated beam members extending along the insertion direction of the signal transmission medium F (right direction in FIG. 5).

  The movable beam 12a and the fixed beam 12b are arranged in the inner space of the main body housing 11 so as to face each other at an appropriate interval in the vertical direction in the figure, and in the connector front-rear direction (left-right direction in FIG. 2). It is extended. Among them, the fixed beam 12 b is arranged so as to extend along the bottom inner wall surface of the main body housing 11, and is fixed so as to be substantially immobile in the main body housing 11.

  Such a fixed beam 12b has a narrow-plate-shaped connecting support column 12c that extends in a substantially vertical direction (vertical direction in FIG. 2) at a substantially central portion in the connector longitudinal direction (left and right direction in FIG. 2). They are connected together. The movable beam 12a is integrally connected to the upper end portion of the connecting column 12c, and is elastically deformed so that the movable beam 12a rotates around the connecting column 12c or the vicinity thereof. Thus, the movable beam 12a is elastically flexible with respect to the fixed beam 12b. At this time, each movable beam 12a is rotated in a plane including the plane of FIG. 2, and both end portions in the extending direction of the movable beam 12a are elastically displaced in the vertical direction in the figure. Has been made.

  Further, a conductive path for signal transmission or shielding formed on the upper surface side of the signal transmission medium (FPC or FFC) F described above is provided at the connector front end side portion (left end side portion in FIG. 2) of the movable beam 12a. A terminal contact convex portion 12a1 is provided as a contact portion connected to one of (not shown) so as to form a downward protruding shape in the drawing. The signal transmission medium (FPC or FFC) F is sandwiched between the terminal contact convex portion 12a1 provided on the movable beam 12a and the fixed beam 12b disposed so as to face the position immediately below the terminal contact convex portion 12a1. It is like that.

  Furthermore, the conductive contact 14 having a shape different from that of the conductive contact 12 is mounted so as to be pushed toward the rear side (right side in FIG. 2) from the medium insertion port 11a provided on the front end side of the connector. Similar to the conductive contact 12, a movable beam and a fixed beam made up of a pair of elongated beam members, a connecting column for connecting these two beams, and a front end portion (left end portion in FIG. 2) of the movable beam are formed. Terminal contact projections.

  In addition, corresponding to the terminal contact convex portion 12a1 of the movable beam 12a described above, the signal transmission or shielding conductive material formed on the lower surface side of the signal transmission medium (FPC or FFC) F also on the fixed beam 12b side. It is also possible to provide a terminal contact convex portion connected to any of the paths (not shown) so as to form an upwardly protruding shape in the figure. These terminal contact convex portions can be arranged so that their positions are shifted to the front side of the connector (left side in the figure) or the rear side of the connector (right side in the figure).

  The fixed beam 12b in the present embodiment is basically fixed so as to be stationary. However, for the purpose of facilitating insertion of the signal transmission medium (FPC or FFC) F, the front end of the fixed beam 12b is used. The portion may be formed so as to be slightly lifted from the bottom wall surface of the main body housing 11 so as to be elastically displaceable.

  On the other hand, at the connector rear end side portion (right end side portion in FIG. 2) of the fixed beam 12b, the board connection terminal portion 12b2 solder-connected to the conductive path (not shown) formed on the printed wiring board B described above. The signal transmission connection and the ground connection are performed through the substrate connection terminal portion 12b2.

  Further, an actuated portion 12a2 formed so as to project in a substantially arc shape toward the upper side in a side view is formed on the connector rear end side portion (right end side portion in FIG. 2) of the movable beam 12a described above. ing. The lower edge portion of the actuated portion 12a2 is formed to be recessed in a substantially arc shape toward the upper side, and the medium mounted on the rear end portion of the main body housing 11 in the depressed portion of the actuated portion 12a2. The pressing cam portion 13a of the actuator 13 serving as the fixing operation means is disposed in contact with the lower side in the drawing.

  The actuator 13 as the medium fixing operation means is formed of a substantially plate-like member as a whole, and is arranged at the connector rear end portion (right end portion in FIG. 2) of the main body housing 11 in the width direction of the main body housing 11. It has a main body base portion 13b extending in an elongated shape along the (longitudinal direction). At both ends of the main body base portion 13b in the horizontal width direction (longitudinal direction), there are respectively provided rotating shafts 13c protruding outward in the horizontal width direction (longitudinal direction), and opposed to the rotating shaft 13c. In this manner, bearing portions 11c and 11c made of plate-like members are formed along both lateral end surfaces (longitudinal direction) of the main body housing 11. And the whole actuator 13 is hold | maintained so that rotation is possible by rotatably supporting the rotating shaft 13c of the main body base part 13b mentioned above with respect to each of these bearing parts 11c.

  Further, as described above, the actuator 13 is disposed in contact with the pressing cam portion 13a of the actuator 13 so as to come into contact with the depressed portion of the actuated portion 12a2 of the movable beam 12a from the lower side in the figure. The whole is held rotatably.

  On the other hand, the main body base portion 13 b of the actuator (medium fixing operation means) 13 is provided with a rotation operation portion 13 d for performing the rotation operation of the actuator 13. The rotation operation unit 13d is configured such that an assembly operator applies a rotation operation force, and the assembly operator applies an appropriate rotation operation force to the rotation operation unit 13d. The entire actuator 13 is rotated around the rotation axis. The actuator 13 is in a “release position” in a state where it is raised upward as shown in FIGS. 1 to 3, and in a state where it is tilted substantially horizontally toward the rear side as shown in FIGS. 4 to 6. It is rotated between the “clamping position”.

  At this time, as described above, when the actuator 13 is rotated to push backward from the “release position” (see FIGS. 1 to 3) toward the “clamping position” (see FIGS. 4 to 6). The rotation radius of the pressing cam portion 13a disposed at the rotation center portion of the actuator 13 is configured to change in an increasing direction between the fixed beam 12b and the movable beam 12a. Then, according to the change in the diameter of the pressing cam portion 13a, the operated portion 12a2 provided on the connector rear end side of the movable beam 12a is displaced so as to be lifted upward in the drawing, and accordingly, the operated portion 12a2 The terminal contact convex portion 12a1 provided on the opposite side (connector front end side) is pushed downward.

  First, as shown in FIG. 7, the signal transmission medium F is arranged to face the front side of the main body housing 11 in a state where the actuator (medium fixing operation means) 13 described above is in the “release position”. Then, the signal transmission medium F is inserted into the main body housing 11 as shown in FIG. Next, as shown in FIG. 9, the actuator 13 is rotated so as to tilt toward the rear side. Thus, when the actuator 13 has been rotated to just before the “holding position” that is the final rotation position, the rotation radius of the pressing cam portion 13a described above becomes the maximum, and only a minute angle from the maximum radius position. In the “clamping position” that is the rotated position (see FIGS. 4 to 6), the terminal contact described above is made on the signal transmission and ground conductive paths (not shown) formed on the surface of the signal transmission medium F. Convex part 12a1 is press-contacted, and it is comprised so that electrical connection may be performed by it.

  Here, the electrical connector 10 in the present embodiment is provided with a displacement locking member 11d with which the movable beam 12a abuts at an appropriate displacement position, and the movable beam 12a abutted against the displacement locking member 11d is provided. The elastic displacement is stopped. The displacement locking member 11d in the present embodiment is provided so as to constitute a part of the main body housing 11, and is formed from a thin belt-like member extending along the lateral width direction (longitudinal direction). Yes. The displacement locking member 11d is a portion between the movable beam 12a and the fixed beam 12b, and is disposed slightly forward (to the left in FIG. 2) of the connecting support column 12c. Corresponding to the upper and lower surfaces of 11d, the movable beam 12a and the fixed beam 12b are provided with protruding contact portions 12a3 and 12b3, respectively.

  Of these protrusion-like contact portions 12a3 and 12b3, the protrusion-like contact portion 12b3 provided on the fixed beam 12b side protrudes in a substantially mountain shape upward from the upper edge portion of the fixed beam 12b. Is formed. The top end of the protruding contact portion 12b3 is provided so as to always contact the lower surface of the displacement locking member 11d, and the protruding contact portion provided on the fixed beam 12b side. The displacement locking member 11d is supported from below by 12b3.

  On the other hand, the protrusion-like contact portion 12a3 provided on the movable beam 12a side has an arrangement relationship in which the projection contact portion 12a3 contacts or separates from the upper surface of the displacement locking member 11d in response to the swing of the movable beam 12a described above. Has been made. That is, the protruding contact portion 12a3 provided on the movable beam 12a side is formed so as to protrude in a substantially mountain shape downward from the lower edge portion of the movable beam 12a. The top portion of the lower end side of the portion 12a3 is disposed so as to face the upper surface of the displacement locking member 11d.

  As described above, when the actuator 13 is maintained in the “release position” (see FIGS. 1 to 3), that is, when the movable beam 12a is not elastically displaced, the movable The protruding contact portion 12a3 of the beam 12a is disposed at a position spaced upward by an appropriate distance from the upper surface of the displacement locking member 11d. Then, the actuator 13 maintained at the “release position” moves toward the “clamping position” (see FIGS. 4 to 6) in a state where the signal transmission medium (FPC or FFC) F is not inserted into the connector. When pushed backward, the projecting contact portion 12a3 descends with the elastic displacement of the movable beam 12a and contacts the upper surface of the displacement locking member 11d.

  When the protruding contact portion 12a3 on the movable beam 12a side contacts the upper surface of the displacement locking member 11d as described above, the swinging of the movable beam 12a after that is prohibited, and that of the movable beam 12a. By stopping the above elastic displacement, plastic deformation due to excessive displacement is prevented. Further, since the terminal contact convex portion (contact portion) 12a1 provided at the front end portion of the movable beam 12a cannot be moved downward, a situation where the fixed beam 12b side is touched is avoided. Is done.

  Here, the displacement position for stopping the elastic displacement by prohibiting the swing of the movable beam 12a by the displacement locking member 11d described above is the terminal contact convex portion (contact portion) with respect to the signal transmission medium (FPC or FFC) F. It is set slightly below the displacement position where 12a1 contacts. That is, when the signal transmission medium (FPC or FFC) F is inserted into the connector as shown in FIG. 8, the actuator 13 is rotated as shown in FIG. 9, that is, the elastic displacement of the movable beam 12a. Is performed, the terminal contact convex portion (contact portion) 12a1 becomes the signal transmission medium (FPC or FFC) F immediately before the protruding contact portion 12a3 of the movable beam 12a contacts the displacement locking member 11d. They are arranged so that they come into contact with each other.

  On the other hand, when the signal transmission medium (FPC or FFC) F is not inserted into the connector as shown in FIG. 2, the actuator 13 is rotated as shown in FIG. 4, that is, the elastic displacement of the movable beam 12a. Is performed, the terminal contact convex part (contact part) 12a1 passes through the displacement position in contact with the signal transmission medium (FPC or FFC) F, and the downward displacement is performed, but the signal transmission medium (FPC or FFC) F and In the displacement position immediately after passing through the contact displacement position, the projecting contact portion 12a3 of the movable beam 12a is disposed so as to contact the displacement locking member 11d.

  In addition, in the present embodiment, the stop position of the elastic displacement due to the rocking prohibition of the movable beam 12a by the displacement locking member 11d described above is set to a position above the displacement position where the movable beam 12a is plastically deformed. Has been. Therefore, even when the movable beam 12a is elastically displaced without the signal transmission medium (FPC or FFC) F being inserted into the connector, plastic deformation of the movable beam 12a is avoided. Yes.

  Further, in order to more effectively avoid the plastic deformation of the movable beam 12a, it is preferable that the protruding contact portion 12a3 of the movable beam 12a be arranged at a position as far as possible from the connecting column portion 12c. Since the center of rotation when the movable beam 12a rotates is at the upper part of the connecting column 12c, when the rotation angle of the movable beam 12a is constant, the movable beam 12a is more distant from the center of rotation. This is because the displacement amount of the projecting contact portion 12a3 of 12a becomes large and can be stopped at a smaller displacement amount rotation angle. Therefore, as shown in FIG. 2, the protruding contact portion 12a3 of the movable beam 12a is disposed on the connector front end side (left side in FIG. 2) from the protruding contact portion 12b3 of the fixed beam 12b.

  According to the present embodiment having such a configuration, when a so-called empty closing operation, which is a movement operation of the actuator 13 when the signal transmission medium (FPC or FFC) F is not inserted, is performed, the movable beam 12a. When the angle exceeds a certain displacement position, the protruding contact portion 12a3 of the movable beam 12a contacts the displacement locking member 11d provided on the main body housing 11, and excessive elastic displacement of the movable beam 12a is prevented. Thus, the plastic deformation of the movable beam and the decrease in productivity due to the idle closing of the actuator 13 are well prevented.

  Further, since the displacement locking member 11d in the present embodiment is provided so as to constitute a part of the main body housing 11, the displacement locking member 11d is integrally formed with the main body housing 11. ing.

  Furthermore, since the movable beam 12a in the present embodiment is provided with a protruding contact portion 12a3 provided so as to be able to contact the displacement locking member 11d, the movable beam 12a is provided with respect to the displacement locking member 11d. The protruding contact portion 12a3 is reliably contacted.

  Similarly, since the fixed beam 12b of the conductive contact 12 according to the present embodiment is provided with the protruding contact portion 12b3 that always contacts the displacement locking member 11d, the protruding contact portion 12b3 of the fixed beam 12b. Is reliably brought into contact with the displacement locking member 11d, and the fixed beam 12b is stably held against the displacement locking member 11d.

  In addition, since the displacement locking member 11d in the present embodiment is disposed so as to contact the movable beam 12a immediately before the displacement position at which the movable beam 12a is plastically deformed, excessive displacement of the movable beam 12a is prevented. Thus, plastic deformation is avoided.

  Furthermore, the displacement locking member 11d according to the present embodiment is provided on the movable beam 12a immediately after the displacement position where the terminal contact convex portion (contact portion) 12a1 of the movable beam 12a contacts the signal transmission medium (FPC or FFC) F. The movable beam 12a is reliably brought into contact with the signal transmission medium F because it is arranged so as to make contact.

  Moreover, in 2nd Embodiment concerning FIGS. 10-13 which attached | subjected the same code | symbol with respect to the structure same as embodiment mentioned above, the protrusion-shaped contact part 11e1 is provided in the displacement locking member 11e. Yes. The protruding contact portion 11e1 is formed so as to protrude upward in a substantially semicircular cross section at the front end portion (left end portion in FIG. 10) of the upper surface of the displacement locking member 11e. The lower edge portion of the movable beam 12a can be brought into contact with the upper end portion of the protruding contact portion 11e1 from above.

  In the second embodiment, the same operations and effects as those of the first embodiment described above can be achieved.

  Although the invention made by the present inventor has been specifically described based on the embodiments, the present invention is not limited to the above-described embodiments, and various modifications can be made without departing from the scope of the invention. Needless to say.

  For example, in the above-described embodiment, the displacement locking member 11 d is formed integrally with the main body housing 11, but it may be formed so as to constitute a part of the conductive contact 12.

  In the above-described embodiment, a flexible printed circuit (FPC) wiring board or a flexible flat cable (FFC) is used as a signal transmission medium fixed to the electrical connector. The present invention can be similarly applied to a case where a transmission medium or the like is used.

  Further, in the above-described embodiment, the present invention is applied to an electrical connector including an actuator that can rotate as a medium fixing operation means. However, the present invention includes an actuator that reciprocates in a slide shape, for example. The present invention can be similarly applied to other electrical connectors.

  Furthermore, although the electrical connector according to the above-described embodiment has conductive contacts of different shapes arranged side by side, the present invention can be similarly applied to those employing conductive contacts of the same shape. Is possible.

  The present invention can be widely applied to a wide variety of electrical connectors used in various electrical devices.

10 Electrical connector 11 Body housing (insulator)
11a Medium insertion port 11b Component mounting port 11c Bearing portion 11d Displacement locking member 11e Displacement locking member 11e1 Protruding contact portion 12, 14 Conductive contact 12a Movable beam 12a1 Terminal contact protrusion contact portion (contact portion)
12a2 Actuated part 12a3 Protruding contact part 12b Fixed beam 12b2 Substrate connection terminal part 12b3 Protruding contact part 12c Connecting support part 13 Actuator (medium fixing operation means)
13a Press cam portion 13b Main body base portion 13c Rotating shaft 13d Rotating operation portion F Signal transmission medium (FPC or FFC)
B Printed wiring board

Claims (6)

The movable beam of the conductive contact is elastically displaced by moving an actuator provided movably on the main body housing from the release position to the clamping position, and the contact portion provided on the movable beam is inserted into the main body housing. An electrical connector configured to contact a transmitted signal transmission medium;
An electrical connector, comprising: a displacement locking member that stops the elastic displacement of the movable beam by contacting the movable beam at an appropriate displacement position.   The electrical connector according to claim 1, wherein the displacement locking member is provided so as to constitute a part of the main body housing or the conductive contact.   2. The electricity according to claim 1, wherein the movable beam or the displacement locking member is provided with a protruding contact portion provided so as to be able to contact the displacement locking member or the movable beam. connector.   The electrical connector according to claim 1, wherein the displacement locking member is disposed so as to contact the movable beam at a displacement position immediately before a displacement position at which the movable beam is plastically deformed.   2. The displacement locking member is disposed so that a contact portion of the movable beam contacts the movable beam at a displacement position immediately after a displacement position where the movable beam contacts the signal transmission medium. Electrical connector. The conductive contact has a fixed beam attached to the body housing in a substantially stationary state,
The electrical connector according to claim 1, wherein the fixed beam is provided with a protruding contact portion that always contacts the displacement locking member.

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