JP6482963B2 - Male connector, female connector, and electrical connector comprising these connectors - Google Patents

Description

  The present invention relates to a male connector, a female connector, and an electrical connector including these connectors, and more specifically, a male connector having a configuration capable of suppressing a half-fitted state when the male connector and the female connector are coupled. And an electrical connector comprising these connectors.

  Patent Document 1 below discloses an invention of an electrical connector that can detect a half-fitted state when a male connector and a female connector are combined. The electrical connector disclosed in Patent Document 1 below is provided with a first ridge line portion and a pair of first and second inclined portions that extend from the first ridge line portion for a predetermined length and face each other. A male connector in which a slider having one cam projection is fitted and coupled to a female connector that is slidably incorporated by an elastic member in a direction orthogonal to the longitudinal coupling direction. A highly conductive contact and an electrically insulating male housing in which the contact is accommodated, and the male housing has a second ridge line portion on the outer peripheral wall surface of the male housing, and the second A third inclined portion that extends from the ridge line portion with a predetermined length and contacts the first inclined portion of the slider so as to come into sliding contact, and a third inclined portion that extends from the second ridge line portion with a predetermined length. 2 is in sliding contact with the inclined part A male connector in which a second cam projection having a fourth inclined portion is formed, a predetermined number of well-conductive contacts electrically connected to contacts of the male connector, and the contacts And an electrically insulating female housing having a fitting hole into which the male housing is fitted, and a slider incorporated in the female housing, wherein the female housing has a longitudinal coupling direction. A slider mounting hole communicating with the fitting hole is formed in a direction orthogonal to the slider, and the slider has a first ridge line portion and a predetermined length extending from the first ridge line portion on the slider body. A first inclined portion that is slid in contact with the third inclined portion of the die connector, and a predetermined length extending from the first ridge line portion, and is slidably contacted with the fourth inclined portion and held in pressure contact therewith. 2nd inclined part A female connector in which the first cam projection is slidably attached to the assembly hole by an elastic member toward the fitting hole. It is characterized by becoming.

JP 2011-175867 A

  According to the electrical connector disclosed in Patent Document 1, when the male connector and the female connector are coupled, the protrusion formed on the slider of the female connector and the protrusion formed on the housing of the male connector abut, The presence or absence of the half-fitted state can be detected by visually checking the touch at the end and the slider movement.

  However, in the electrical connector disclosed in Patent Document 1, the fitting connection between the male connector and the female connector requires a user to apply force until the connection is completed, and the half-fitted state If it is detected, the user needs to perform coupling again.

  Therefore, the present invention provides a male connector and a female connector having a configuration in which, when the female connector and the male connector are coupled, a fixed distance is fitted to each other, and the coupling is automatically performed. An object of the present invention is to provide an electrical connector comprising a male connector and a female connector.

In order to achieve the above object, the male connector according to claim 1 is coupled to a female connector in which a movable member on which a pressing protrusion is formed is incorporated so as to be movable by an elastic member in a direction perpendicular to the coupling direction. A male connector,
The male connector has a male contact of at least one, and the male housing in which the male contacts are housed, and
The male housing includes an unlocking portion that unlocks the movable member that is locked in a state in which the elastic member is elastically deformed and accumulated elastic force in the female connector, and the movable said pressing projection is opposed to formed side surface of the member, and the pressing projection which is pressed against the pressing projection, are formed,
When coupled to the female connector, the locking release portion of the male housing releases the locking of the movable member of the female connector, and the movable member on which the pressing protrusion is formed is elastic. is moved by the elastic force possessed by the member, the pressed protrusion of the male housing by the pressing protrusion of the elastic member by Ri before Symbol movable member to the elastic force of the female connector is moved is pressed, wherein the male housing is pressed into the coupling direction.

The male connector of the second aspect is the male connector of the first aspect, wherein the pressed protrusion of the male housing is formed of a columnar body having a predetermined height,
The pressed protrusion is pressed at a portion where the connecting direction side of the pressing protrusion formed on the movable member of the female connector is inclined.

Further, the male connector of the third aspect, in the male connector of the first aspect, the pressed protrusion of the male housing by a predetermined height having a portion which is inclined opposite to the binding direction side Has an inclined pressing part,
The pressed protrusion is pressed by the pressing protrusion formed on a columnar body formed on the movable member of the female connector.

The male connector according to a fourth aspect is the male connector according to any one of the first to third aspects, wherein the pressed protrusion is closer to the coupling direction side of the male housing than the locking release protrusion. Is formed,
When being coupled to the female connector, the movable protrusion is released by the locking release protrusion after the pressed protrusion is disposed at a position where it can be pressed by the pressing protrusion. To do.

The female connector of the present invention is a female connector to which the male connector of any one of the first to fourth aspects is coupled,
The female connector includes at least one female contact to be in contact with the male contact, a female housing in which the female contact is accommodated and an internal space into which the male housing is inserted is formed. A movable member incorporated in the female housing, and an elastic member that presses the movable member,
The female housing is formed with a built-in portion into which the movable member is incorporated so as to be movable in a direction perpendicular to the coupling direction.
The movable member is formed with a locking projection, and the pressing projection on the side of the built-in portion disposed on the inner space side,
Wherein the embedded portion, and the locking portion to be locked with the locking projection, and the communicating portion to the internal space and communicating, are formed,
When it is combined with the previous Kieu connector,
The movable member is engaged with the engagement protrusion of the movable member and the engagement portion of the assembly portion and incorporated in the assembly portion in a state where the elastic member is elastically deformed and an elastic force is accumulated. And
The locking projection is released from locking with the locking portion by bringing it into contact with a locking release portion formed on a surface of the male connector that faces the locking projection,
The movable member is moved by the elastic force of the elastic member, and the pressed protrusion formed on the male housing is pressed by the pressing protrusion of the movable member moved by the elastic force of the elastic member, wherein the male housing is pushed into the coupling direction.

Further, the female connector of the second aspect is the female connector of the above aspect, wherein the pressing protrusion has an inclined pressing portion in which a coupling direction side of the male connector that is pressed against the pressed protrusion is inclined. And
The inclined protrusion of the pressing protrusion presses the pressed protrusion formed by a columnar body having a predetermined height of the male connector.

The female connector of the third aspect is the female connector of the first aspect, wherein the front pressing protrusion is formed of a columnar body having a predetermined height,
The pressing protrusion presses a portion formed by inclining on the opposite side to the connecting direction of the male connector.

Further, the female connector of the fourth aspect is the female connector of the second aspect , wherein the pressing protrusion has a pressing surface formed along the coupling direction on the end side of the inclined pressing portion. ,
When coupled with a male connector, the pressed protrusion of the male connector is continuously pressed by the pressing surface of the pressing protrusion of the movable member.

Further, the female connector according to the fifth aspect is the female connector according to the first aspect, wherein the locking projection is a locking arm that can be elastically deformed with respect to an opposite side that is locked with the locking portion. It is characterized by being formed.

The electrical connector of the present invention is characterized by comprising the male connector according to any one of the first to fourth aspects and the female connector according to any one of the first to fifth aspects.

According to the male connector of the present invention, when it is coupled with the counterpart female connector, the pressed protrusion formed on the male housing is pressed by the pressing protrusion formed on the movable member of the female connector, Since the male housing is pushed in the coupling direction, the coupling can be reliably performed, and the half-fitted state can be suppressed. In addition, since the locking of the movable member of the female connector can be released by the locking release portion formed in the male housing when coupled with the female connector, the structure can be simplified. .

Moreover, according to the male connector of the 2nd or 3rd aspect, the to-be-pressed protrusion corresponding to the press protrusion formed in the movable member of a female connector can be formed easily.

Further, according to the male connector of the fourth aspect , the connection to the female connector can be performed smoothly.

According to the female connector of the present invention, when coupled with the male connector, the pressing protrusion formed on the movable member incorporated in the female housing is formed on the male connector by the elastic force of the elastic member. By pressing the pressed protrusion, the male housing can be pushed in the connecting direction, and the connection can be reliably performed, and the half-fitted state can be suppressed. In addition, since the locking of the movable member of the female connector can be released by the locking release portion formed in the male housing when coupled with the male connector, the structure can be simplified. .

Moreover, according to the female connector of the 2nd or 3rd aspect, the press protrusion corresponding to the to-be-pressed protrusion formed in the male connector can be formed easily.

In addition, according to the female connector of the fourth aspect , even after being coupled with the male connector, the pressing protrusion of the movable member presses the pressed protrusion of the male connector by the elastic force of the elastic member. In addition, it is possible to increase the durability against vibration and the like.

Further, according to the female connector of the fifth aspect , it is possible to smoothly release the locking projection and the locking portion by the locking release projection.

Further, according to the electrical connector of the present invention, the male connector of the first to fourth one embodiment, the electrical connector to achieve the respective effects of the female connector of the first to fifth any aspect Can be obtained.

FIG. 1A is a perspective view showing a state in which a female connector and a male connector constituting an electrical connector according to an embodiment of the present invention are removed, and FIG. 1A is a state in which the male connector and the female connector are combined. It is the perspective view which showed. FIG. 2 is an exploded perspective view of the electrical connector. FIG. 3A is a perspective view of the female connector showing a state where the slider is locked, and FIG. 3B is a perspective view showing a state where the slider is unlocked. 4 shows the female connector in a state in which the slider is unlocked, FIG. 4A is a front view, FIG. 4B is a plan view, and FIG. 4C is a side view as seen from one side. FIG. 5A is a perspective view of the female connector viewed from another direction, and FIG. 5B is a perspective view of the female housing. 6 shows a slider, FIG. 6A is a perspective view, and FIG. 6B is a perspective view seen from another direction. 7 shows a slider, FIG. 7A is a plan view, FIG. 7B is a front view, and FIG. 7C is a bottom view. 8 shows a male connector, FIG. 8A is a perspective view, and FIG. 8B is a front view. 9 shows a male connector, FIG. 9A is a plan view, FIG. 9B is a side view seen from one side, and FIG. 9C is a bottom view. FIG. 10 shows a process of coupling the male connector and the female connector, FIG. 10A is a cross-sectional perspective view taken along line XA-XA in FIG. 1A, and FIG. 10B is a perspective view of the process following FIG. 11A is a perspective view of the process following FIG. 10B, and FIG. 11B is a perspective view of the process following FIG. 11A. FIG. 12 shows a process of coupling the male connector and the female connector, FIG. 12A is a cross-sectional perspective view taken along line XIIA-XIIA of FIG. 1A, and FIG. 12B is a perspective view of the process following FIG. 13A is a perspective view of a process following FIG. 12B, and FIG. 13B is a perspective view of a process following FIG. 13A. 14A to 14D are enlarged cross-sectional views illustrating states in which the slider portion in FIGS. 12A, 12B, 13A, and 13B is enlarged. 15A is a sectional view taken along line XVA-XVA in FIG. 12A, FIG. 15B is a sectional view taken along line XVB-XVB in FIG. 12B, and FIG. 15C is a sectional view taken along line XVC-XVC in FIG. 15D is a cross-sectional view taken along line XVD-XVD in FIG. 13B. It is sectional drawing in the XVI-XVI line of FIG. 1B.

  Hereinafter, embodiments of the present invention will be described with reference to the drawings. However, the embodiments shown below exemplify a male connector and a female connector for embodying the technical idea of the present invention, and an electrical connector composed of these connectors, and the present invention is specified to these. It is not intended, but is equally applicable to other embodiments within the scope of the claims.

[Embodiment]
With reference to FIGS. 1-16, the electrical connector 10 which concerns on embodiment of this invention is demonstrated. As shown in FIGS. 1 and 2, the electrical connector 10 includes a female connector 12 and a male connector 134. In the electrical connector 10 according to the embodiment, when the male connector 134 and the female connector 12 are fitted, the contacts 14 and 136 provided on the male connector 134 and the female connector 12 are brought into contact with each other, and electrical connection is performed. At this time, the female connector 12 is provided with a coil-shaped spring 130 as an elastic member and a slider 78 as a movable member that is moved by the elastic force of the spring 130. A pressing projection 102 that presses the pressed projection 160 formed on the mold connector 134 is formed (see FIG. 6). When the male connector 134 is inserted into the female connector 12, the slider 78 of the female connector 12 is moved by the elastic force, and the pressed protrusion 160 formed on the male connector 134 is moved by the pressing protrusion 102. By being pressed, the male connector 134 and the female connector 12 are securely coupled to each other (see FIGS. 14 and 15). Hereinafter, the male connector 134 and the female connector 12 will be described.

  First, the female connector 12 will be described with reference to FIGS. 2 to 7, 10 to 13, and 16. As shown in FIGS. 2 and 16, the female connector 12 is mounted in a predetermined number of female contacts 14, a female housing 24 in which these female contacts 14 are accommodated, and the female housing 24. A female retainer 132 and a slider 78 as a movable member that is movably incorporated in the female housing 24 via a spring 130 as an elastic member.

  As shown in FIGS. 2 and 16, the female contact 14 includes a female contact body 16, a contact portion 18 that contacts the male contact 136 on one side of the female contact body 16, and an electric wire 22 on the other side. Are formed of a conductive material such as a metal having a connection portion 20 to which is connected. In the female connector 12 of the embodiment, two female contacts 14 are provided.

  As shown in FIGS. 3 to 5, 10 to 13, and 16, the female housing 24 includes a coupling portion 26 to which the mating male connector 134 is fitted and coupled, and a side opposite to the coupling portion 26. And a wire support portion 28 for supporting the wire 22 connected to the female contact 14, and is formed of a resin material so as to have a hollow internal space 50 connected to each other.

  The coupling portion 26 includes a front surface 30 on the side where the male housing 146 is inserted, a rear surface 38 facing the front surface 30 and extending the wire support portion 28, an upper surface 40, a bottom surface 42, and one side surface 44 surrounding the outer periphery. And the other side surface 46 is formed of a substantially rectangular parallelepiped cylindrical body. Further, an internal space 50 that communicates with the opening 32 formed in the front surface 30 is provided inside the coupling portion 26, and a female retainer 132 is provided in the internal space 50, and the attached female contact 14 is arranged. The internal space 50 is in communication with the wire support portion 28.

  In addition, wedge-shaped wedge-shaped grooves 54 are formed at the four corners of the internal space 50 and gradually become narrower from the front surface 30 side toward the rear side rear surface 38. In the wedge-shaped groove 54 on the bottom surface 42 side, a guide groove 56 is formed which is formed further from the end of the wedge-shaped groove 54 toward the back side, that is, the rear surface 38 side. Furthermore, a fixing piece 52 for positioning and fixing the mounted female contact 14 is formed in the internal space 50 (see FIG. 16). Further, the coupling portion 26 is formed with a built-in portion 58 into which the slider 78 is incorporated on the upper surface 40 side of the internal space 50.

  An opening 32 into which the male connector 134 is inserted is formed on the front surface 30 of the coupling portion 26, and furthermore, recessed portions 34 that are recessed outward are formed at the four corners of the opening 32. ing. The recess 34 serves as an entrance to a wedge-shaped groove 54 formed in the internal space 50.

  A groove having a predetermined width is formed on the upper surface 40 side of the opening. When the male connector 134 is inserted into the female connector 12, this groove serves as a passage groove 36 through which a pressed protrusion 160 and a locking release protrusion 168 described later formed on the male connector 134 pass. These protrusions 160 and 168 are formed with a width that allows them to pass through, and are connected to the built-in portion 58.

  A flat rectangular flat opening 126 is formed on the upper surface 40 side of the front surface 30 of the coupling portion 26, and the flat opening 126 communicates with the built-in portion 58.

  An electric wire support portion 28 extends from the rear surface 38 of the coupling portion 26. A flat opening 126 similar to the flat opening 126 formed on the front surface 30 is formed above the electric wire support 28 on the rear surface 38 (not shown).

  A built-in portion 58 into which the slider 78 is assembled is formed on the upper surface 40 of the coupling portion 26 so as to open over the other side surface 46 side.

  A built-in portion 58 of a slider 78 is formed on the other side surface 46 of the coupling portion 26 so as to open to the upper surface 40 side. In addition, a window portion 48 communicating with the internal space 50 is formed on the other side surface 46. The window portion 48 is also formed on one side surface 44 that faces the window portion 48. Further, the bottom surface 42 of the coupling portion is formed as a flat surface.

  The built-in portion 58 formed in the coupling portion 26 is formed by being cut out so that the slider 78 is incorporated from the inlet side 76 on the other side surface 46 side and is movable in a direction perpendicular to the fitting direction. ing. The built-in portion 58 is formed with a communication portion 60 connected to the internal space 50 and a pair of guide portions 62 that guide the movement of the slider 78.

  When the male connector 134 is inserted into the coupling portion 26 of the female connector 12, the communication portion 60 is a space in which the pressing protrusion 102 formed on the slider 78 is moved, and the inserted male connector 134. The pressed protrusion 160 formed on the slider 78 is moved and becomes a portion that contacts the pressing protrusion 102 of the slider 78.

  Moreover, the guide part 62 is formed facing the front surface 30 side and the rear surface 38 side of the built-in part 58, respectively. The guide portion 62 is formed in a step shape having a lower step portion 68 on the communication portion 60 side and an upper step portion 64 that is higher than the lower step portion 68.

  In addition, on the front surface 30 side of the lower step portion 68 of the guide portion 62, a locking portion 66 that is locked in a state where the slider 78 elastically deforms the spring 130 to store elastic force, that is, in a state where the spring 130 is contracted. Are formed respectively.

  In addition, on the other side surface 46 side of the upper stage portion 64 side of the guide portion 62 that becomes the entrance side 76 into which the slider 78 is incorporated, a wall portion 72 with which a regulation projection 116 formed on the slider 78 described later is in contact is provided. Is formed. The wall 72 is formed with such a width that the guide arm 112 of the slider 78 can pass through as it is, but the portion where the restricting projection 116 is formed cannot pass unless the guide arm 112 is elastically deformed so that the guide arm 112 is narrowed. ing.

  Further, the guide portion 62 is communicated with a flat opening 126 formed on the front surface 30 and the rear surface 38 of the coupling portion 26.

  The coupling portion 26 has a pair of guide grooves 74 through which a guide rail 92 formed on a slider 78 described later passes on the back side of the built-in portion 58, that is, on the back side of the upper surface 40 on one side 44 side. A tunnel groove 75 through which the mountain portion 90 passes is formed.

  Further, an attachment portion 70 to which the spring 130 is attached is formed so as to protrude along the moving direction of the slider 78 on the back side of the built-in portion 58, that is, on the inner side of the one side surface 44. In addition, the attaching part 70 of the embodiment is formed of a cylindrical body that fits inside the coiled spring 130.

  Next, the slider 78 will be described with reference to FIGS. 6, 7, and 10 to 13. The slider 78 has a flat rectangular parallelepiped shape and is formed of a resin material. The slider 78 is incorporated in a movable state in an assembly portion 58 formed in the coupling portion 26 of the female housing 24. The slider 78 includes a front wall portion 80 in which an insertion port 82 into which the spring 130 is inserted is formed, and a rear wall portion 84 on the opposite side of the front wall portion 80 and having an operation portion 86 that is operated by a user. The upper wall portion 88 provided on the upper surface 40 side of the coupling portion 26 of the female housing 24, the bottom wall portion 94 provided on the inner space 50 side of the female housing 24, one side wall portion 96, and the other side wall portion. 98. A spring accommodating portion 124 that accommodates the spring 130 is formed inside the slider 78.

  On the bottom wall portion 94 of the slider 78, a pressing protrusion 102 that presses the pressed protrusion 160 formed on the male connector 134 is formed. Further, on one side wall portion 96 and the other side wall portion 98 side of the slider 78, a cantilever type guide arm 112 that can be elastically deformed in a direction perpendicular to the moving direction of the slider 78 with the front wall portion 80 side as an axis. Are formed respectively. The guide arm 112 is formed with first slits 110 that are connected to the front wall 80 side so that the guide arm 112 can be elastically deformed. A restricting portion 114 that restricts the movement of the slider 78 is formed on the distal end side of the guide arm 112. The restricting portion 114 has a restricting protrusion 116 protruding outside the guide arm 112, and the restricting protrusion 116 comes into contact with the wall portion 72 on the inlet side 76 of the guide portion 62 formed in the built-in portion 58. The slider 78 moved by the elastic force of the spring 130 is regulated.

  A locking arm 120 that is elastically deformable on the upper wall 88 side is formed on the other side wall 98 side and inside the guide arm 112 with the front wall 80 side as an axis. The locking arm 120 is formed with a second slit 118 that is connected to the front wall 80 side, and is provided between the first slit 110 and the second slit 118 of the guide arm 112.

  The front wall 80 of the slider 78 has an insertion opening 82 having a predetermined size at a substantially central portion. In the embodiment, the insertion port 82 is formed in a size that allows the spring 130 to be inserted, for example. Further, a pressing protrusion 102 formed on the bottom wall portion 94 is formed on the bottom wall portion 94 side of the front wall portion 80 so as to be connected to the front wall portion 80 side. Furthermore, one side wall 96 side and the other side wall 98 side are formed in a step shape so as to correspond to each guide part 62 of the built-in part 58 formed in the coupling part 26 of the female housing 24. It has become a shape.

  The rear wall portion 84 of the slider 78 is provided with an operation portion 86, and the operation portion 86 is most concave at the center portion so that the user can easily perform an operation, and gradually increases toward the both ends. Compared to the above, it is formed in a curved shape that is far from the front wall 80. A second slit 118 for forming the locking arm 120 is formed on the other side wall 98 side of the rear wall 84.

  In addition, the upper wall portion 88 of the slider 78 is formed with a spring accommodating portion 124 into which the spring 130 is inserted, so that a mountain portion 90 is formed with a raised central portion. Further, a pair of guide rails 92 are formed on both sides of the mountain portion 90 from the front wall portion 80 to the rear wall portion 84.

  A second slit 118 connected to the rear wall portion 84 is formed on the other side wall portion 98 side of the upper wall portion 88 until reaching the front wall portion 80. Further, first slits 110 for forming guide arms 112 are formed on one side wall 96 side and the other side wall 98 side of the upper wall part 88, respectively. Note that the rear wall portion 84 side of the upper wall portion 88 is formed thick because the operation portion 86 is provided.

  The bottom wall portion 94 is formed such that a pressing projection 102 protrudes from the plane of the bottom wall portion 94 to a predetermined height at a substantially central portion. The pressing protrusion 102 is formed so as to be inclined from one side wall 96 side to the other side wall part 98 side as it goes from the front wall part 80 side to the rear wall part 84 side. This inclined and standing portion becomes the inclined pressing portion 104, and when the male connector 134 is inserted into the female connector 12, the male connector 134 is pressed by pressing the pressed protrusion 160 of the male connector 134. Is formed in a shape that can be pressed in the depth direction of the female connector 12. That is, the inclined pressing portion 104 is formed to be inclined to the side opposite to the side where the male connector 134 is inserted when the slider 78 is incorporated into the incorporating portion 58 of the female housing 24.

  Further, a retaining surface 108 is formed along the moving direction of the slider 78 on the front wall 80 side of the inclined pressing portion 104 of the pressing protrusion 102. Further, a depression 106 is formed on the opposite side of the inclined protrusion 104 of the pressing protrusion 102. In addition, on the front wall 80 side of the slider 78 of the pressing protrusion 102, a pressing surface 109 is formed so as to be perpendicular to the moving direction of the slider 78, that is, in parallel with the front wall 80.

  Similarly to the upper wall portion 88, the first slit 110 and the second slit 118 are formed in the bottom wall portion 94, and the guide arms 112 and the locking arms 120 are formed.

  On the bottom wall 94 side of the locking arm 120, a locking projection 122 is formed that fixes the slider 78 to the built-in portion 58 of the female housing 24 with the spring 130 contracted. The locking protrusion 122 is a portion that is locked to the locking portion 66 formed on the built-in portion 58 of the coupling portion 26. Further, the locking protrusion 122 of the slider 78 has a vertical surface on the side locked with the locking portion 66 of the built-in portion 58, that is, the rear wall portion 84 side, and the other side wall portion 98 side and The front wall 80 side is inclined and chamfered.

  Further, a step is formed on one side wall 96 side and the other side wall 98 side of the bottom wall portion 94 with the first slit 110 interposed therebetween, and each guide arm 112 is thinner than the other portions. It has become.

  One side wall portion 96 and the other side wall portion 98 are portions that are outside the guide arm 112. In addition, on the outer surface of the restricting portion 114 at the end of the guide arm 112, a restricting protrusion 116 protruding from the other surface is formed.

  The upper wall 88 and the bottom wall 94 of the slider 78 on the one side wall 96 side and the other side wall 98 side are moved in the guide portion 62 of the built-in portion 58.

  In addition, the female retainer 132 is engaged with a male retainer 186 provided on a male connector 134 described later, so that the connection with the male connector 134 is reliably performed.

  In the assembly of the female connector 12, first, each female contact 14 in which the electric wire 22 is connected to the connecting portion 20 is inserted from the electric wire support portion 28 side of the female housing 24, and a fixed piece formed in the internal space 50 is formed. The female contact 14 is pushed into 52 until the female contact 14 is fixed, and the female contact 14 is attached to the female housing 24. Thereafter, the female retainer 132 is inserted from the opening 32 formed in the front surface 30 of the coupling portion 26 of the female housing 24 and is mounted in the internal space 50.

  Next, the slider is assembled in the female housing 24. In this incorporation, first, the spring 130 is inserted from the insertion opening 82 formed in the front wall portion 80 of the slider 78 and is accommodated in the spring accommodating portion 124 in the slider 78. At this time, the spring 130 may protrude from the insertion port 82 of the slider 78. Thereafter, a coiled spring 130 housed in a slider 78 is inserted into and attached to a cylindrical mounting portion 70 formed on one side 44 side of the mounting portion 58 formed in the coupling portion 26 of the female housing 24. It is done. Then, a portion corresponding to the guide part 62 on one side wall 96 side and the other side wall part 98 side of the slider 78 is inserted into the guide part 62 from the inlet side 76 on the other side face 46 side of the built-in part 58.

  Thereafter, the slider 78 is further pushed into the built-in portion 58, so that the end portion of the guide arm 112 of the slider 78 is formed by the wall portion 72 formed on the side surface on the upper step portion 64 side of the guide portion 62 of the built-in portion 58. The formed regulation protrusion 116 is elastically deformed, and each guide arm 112 is pushed. At this time, the elastically deformed guide arm 112 is restored to the original state, so that the restricting projection 116 of the guide arm 112 comes into contact with the wall portion 72 of the built-in portion 58, and the slider 78 is moved from the built-in portion 58. It will not come off.

  Further, when the slider 78 is pushed into the back side of the built-in portion 58, that is, the one side surface 44 side, the locking protrusion 122 formed on the locking arm 120 of the slider 78 is engaged with the locking portion 66 of the built-in portion 58. Then, the slider 78 is engaged with the engaging portion 66, and the slider 78 is incorporated into the incorporating portion 58 with the spring 130 contracted. At this time, the restricting projection 116 of the guide arm 112 of the slider 78 and a part of the rear wall portion 84 are slid and moved through the gap 128 communicating with the flat opening 126 on the side of the built-in portion 58 of the female housing 24. The Thus, the assembly of the female connector 12 is completed.

  Next, the male connector 134 will be described with reference to FIGS. 2, 8, 9, and 16. As shown in FIGS. 2 and 16, the male connector 134 includes a predetermined number of male contacts 136, a male housing 146 in which these male contacts 136 are accommodated, and female connectors provided in the female connector 12. The male retainer 186 is configured to be connected to the mold retainer 132 so that the connectors are securely coupled to each other.

  As shown in FIGS. 2 and 16, the male contact 136 has a male contact main body 138, and is in contact with the female contact 14 provided on the female connector 12 on one side of the male contact main body 138. It has the part 140 and the connection part 142 to which the electric wire 144 is connected to the other side, and is formed with electroconductive materials, such as a metal. Note that the male connector 134 of the embodiment is provided with two male contacts 136.

  The male housing 146 includes an insertion portion 148 inserted into the mating female connector 12 and an electric wire support portion 150 that is opposite to the insertion portion 148 and supports the electric wire 144 connected to the male contact 136. And each of them is formed of a resin material so as to have a hollow internal space 178 communicated with each other.

  The insertion portion 148 includes a front surface 152 on the side to be inserted into the female housing 24, a rear surface 156 facing the front surface 152 and extending the wire support portion 150, an upper surface 158 and a bottom surface 170 surrounding the outer periphery, and one side surface. 172 and the other side 174 are formed of a substantially rectangular parallelepiped cylindrical body.

  In addition, an internal space 178 that communicates with an opening 154 formed in the front surface 152 is provided inside the insertion portion 148, and a male retainer 186 is provided in the internal space 178, and a mounted male contact is provided. 136 is arranged. Furthermore, a fixing piece 180 for positioning and fixing the attached male contact 136 is formed in the internal space 178.

  The upper surface 158 of the insertion portion 148 is formed of a rectangular plate-like body, and has two protrusions 160 and 168 erected on the outer peripheral side, and two pairs of linear protrusions 176 along the insertion direction. Two protrusions 160 and 168 are interposed therebetween. Note that the linear protrusion 176 is formed with a lower height than the two protrusions 160 and 168.

  Of the two protrusions, the protrusion first formed on the female connector 12, that is, the protrusion formed on the front surface 152 side is pressed by the pressing protrusion 102 formed on the slider 78 provided on the female connector 12. This is a pressed projection 160. The pressed protrusion 160 is formed on a substantially central axis of the upper surface 158 and standing upright at a predetermined height from the outer periphery. Further, as shown in FIGS. 8A and 9A, the pressed protrusion 160 is formed in a curved surface on one side 172 side in a plan view, that is, the side in contact with the pressing protrusion 102 formed on the slider 78 of the female connector 12. A curved surface portion 162, and a portion excluding the curved surface portion 162 on the other side surface 174 side is a planar surface portion 164 formed in a planar shape, and has a columnar shape having a substantially right angle on the planar surface portion 164 side. It is a body.

  At this time, the curved portion 162 side opposite to the insertion direction, that is, the rear surface 156 side is a pressed portion 166 that is in direct contact with the pressing protrusion 102 and pressed. The pressed portion 166 is formed so as to protrude toward the rear surface 156 compared to the portion of the planar portion 164 on the rear surface 156 side.

Of the two protrusions, the protrusion formed on the rear surface 156 side is an unlocking protrusion serving as an unlocking portion for releasing the locking of the slider 78 incorporated in the female connector 12 in a contracted state. 168. In the female connector 12, the locking release protrusion 168 allows the male connector 134 to be connected to the female connector 12 when the locking protrusion 122 of the slider 78 and the locking portion 66 of the built-in portion 58 of the female housing 24 are locked. By being inserted into the mold connector 12, the latching projections 168 push up the latching projections 122 of the slider 78, thereby releasing the latching from the latching portions 66. Therefore, the locking release projection 168 is formed with a height that can exceed the height of the locking portion 66 when the locking projection 122 is pushed up.

  The locking release protrusion 168 has a chamfered portion 169 chamfered on the insertion / extraction direction side so that the locking protrusion 122 can be pushed up smoothly (see FIGS. 9A and 9B).

  Further, the locking release protrusion 168 is at a position shifted from the central axis of the male housing 146 toward the one side surface 172 so as to correspond to the position where the locking protrusion 122 of the slider 78 of the female connector 12 is disposed. Is formed.

  Further, the pressed protrusion 160 and the locking release protrusion 168 are formed on the side where the pressed protrusion 160 is inserted into the female connector 12, that is, on the front surface 152 side, compared to the locking release protrusion 168.

  A pair of linear protrusions 176 are formed on the bottom surface 170 of the insertion portion 148 so as to be formed on the top surface 158 along the insertion direction. Also,

  On one side 172 and the other side 174, a pair of linear protrusions 176 are formed along the insertion direction as formed on the upper surface 158.

  Note that wedge-shaped wedge protrusions 182 are formed at the four corners of the outer periphery on the rear surface 156 side of the insertion portion 148, and gradually increase from the front surface 152 side toward the rear surface 156 side. The wedge protrusion 182 on the bottom surface 170 side is formed with a guide protrusion 184 erected from the front surface 152 side toward the end of the wedge protrusion 182.

  The male connector 134 is assembled by inserting each male contact 136 in which the electric wire 144 is connected to the connection portion 142 of each male contact 136 from the electric wire support portion 150 side of the male housing 146 to form the internal space 178. The male contact 136 is attached to the male housing 146 by being pushed into the fixed piece 180 until the male contact 136 is fixed. Further, the male retainer 186 is inserted from the opening 154 formed in the front surface 152 of the insertion portion 148 of the male housing 146 and is mounted in the internal space 178, and the assembly of the male connector 134 is completed.

  Next, the connection between the male connector 134 and the female connector 12 will be described with reference to FIGS. 1 and 10 to 16. First, the front surface 152 of the insertion portion 148 of the male connector 134 and the front surface 30 of the coupling portion 26 of the female connector 12 are arranged to face each other. At this time, the slider 78 of the female connector 12 is locked and held in a state in which the spring 130 is contracted to the built-in portion 58 (see FIGS. 1A, 10A, 12A, 14A, and 15A). .

  Next, the insertion portion 148 of the male connector 134 is inserted into the opening 32 of the front surface 30 of the coupling portion 26 of the female connector 12 from the front surface 152 side. At this time, the pressed protrusion 160 and the locking release protrusion 168 formed on the upper surface 158 of the insertion portion 148 pass through the passage groove 36 formed on the front surface 30 of the coupling portion 26, and the guide protrusion of the insertion portion 148. 184 is inserted along the guide groove 56 of the coupling portion 26 (see FIGS. 10B, 12B, 14B, and 15B).

  Thereafter, when the male connector 134 is further inserted, the locking release protrusion 168 formed on the upper surface 158 of the insertion portion 148 is locked on the locking arm 120 of the slider 78 provided on the female connector 12. It abuts on the protrusion 122. When the male connector 134 is further pushed in, the locking projection 122 is pushed upward by the locking release projection 168 of the insertion portion 148 and the locking arm 120 of the slider 78 is elastically deformed and moved upward. . As described above, when the locking projection 122 of the slider 78 is pushed up, the locking with the locking portion 66 formed on the built-in portion 58 of the coupling portion 26 is released. Then, by releasing the locking of the slider 78, the slider 78 is moved to the inlet side 76 in the built-in portion 58 by the elastic force of the spring 130. At this time, since the male connector 134 is being inserted, the slider 78 is moved until the inclined portion of the pressing protrusion 102 of the slider comes into contact with the pressed protrusion 160 of the insertion portion 148 (FIGS. 11A and 13A). 14C and 15C).

  Thereafter, the slider 78 is further moved by the elastic force of the spring 130, so that the pressing protrusion 102 of the slider 78 presses the pressed protrusion 160 of the insertion portion 148. At this time, the inclined pressing portion 104 of the pressing protrusion 102 presses the pressed portion 166 of the pressed protrusion 160 along this inclination. Therefore, the pressed portion 166 of the insertion portion 148 receives stress in the insertion direction from the inclined pressing portion 104 of the pressing protrusion 102 of the slider 78, so that the back side of the coupling portion 26 of the female connector 12, that is, the rear surface 38 side. The insertion part 148 of the male connector 134 is moved.

  Then, by connecting the male connector 134 to the female connector 12, the contact portion 18 of the male contact 136 of the male connector 134 and the contact portion 140 of the female contact 14 of the female connector 12 are brought into contact with each other. The coupling between the male connector 134 and the female connector 12 is completed (see FIGS. 1B, 11D, 13B, 14D, 15D, and 16). At this time, the slider 78 is moved until the restriction protrusion 116 provided on the guide arm 112 and the wall portion 72 of the built-in portion 58 come into contact with each other, and the movement of the slider 78 is restricted. Further, the wedge protrusion 182 formed on the insertion portion 148 of the male housing 146 and the wedge-shaped groove 54 formed on the coupling portion 26 of the female housing 24 are fitted to each other, so that high durability against twisting and the like is achieved. Will have.

  At this time, the pressed protrusion 160 of the insertion portion 148 of the male housing 146 comes into contact with the retaining surface 108 of the inclined pressing portion 104 of the pressing protrusion 102 of the slider 78. For example, the male connector 134 and the female When the mold connector 12 is pulled, the pressed protrusion 160 is in contact with the retaining surface 108, thereby preventing the male connector 134 and the female connector 12 from coming off.

  Further, even when the female connector 12 and the male connector 134 are coupled, the slider 78 is high against vibration and the like because the pressed protrusion 160 of the male connector 134 is pressed by the elastic force of the spring 130. Durability can be obtained.

  The positional relationship between the pressed protrusion 160 of the insertion portion 148, the locking release protrusion 168, and the pressing protrusion 102 of the slider 78 is the same as that of the pressed protrusion 160 when the male connector 134 and the female connector 12 are coupled. An inclined pressing portion 104 of the pressing projection 102 is provided between the locking release projection 168. In addition, the depression 106 is formed in the pressing protrusion 102, so that when the male connector 134 and the female connector 12 are coupled, the locking release protrusion 168 is prevented from coming into contact with the pressing protrusion 102. .

  In addition, the slider 78 in the coupling | bonding of the male connector 134 and the female connector 12 can also be used as the auxiliary | assistant role when performing a force so that a user may insert a male connector and a female connector. .

  Further, the male connector 134 and the female connector 12 are removed by performing the steps shown in FIGS. 10 to 15 in the opposite direction so that the slider 78 of the female connector 12 in the coupled state is retracted. Press to move. When the slider 78 is moved to the back side of the built-in portion 58, that is, to the side surface 44 side, and the pressing projection 102 and the pressed projection 160 of the insertion portion 148 are not in contact with each other, the coupling portion 26 of the female housing 24. Then, the male connector 134 is pulled out. At that time, the locking projection 122 of the slider 78 is pressed against the locking release projection 168 of the insertion portion 148, so that the locking arm 120 of the slider 78 is deformed and the locking release projection 168 is passed. When the locking release projection 168 passes through the locking projection 122, the locking arm 120 returns to the original position, the locking projection 122 and the locking portion 66 are locked, and the slider 78 moves to the built-in portion 58. It will be placed in the original position. Thereafter, the male connector 134 and the female connector 12 can be removed by pulling out the male connector 134 from the female connector 12.

  In the embodiment, the case where the pressed protrusion 160 of the insertion portion 148 of the male connector 134 has a columnar shape and the pressing protrusion 102 of the slider 78 of the female connector 12 has an inclined shape has been described. Alternatively, the pressed protrusion of the male connector may be inclined, and the pressing protrusion of the slider of the female connector may be columnar. That is, the shape of the pressed protrusion formed on the male housing is formed by inclining the rear surface side opposite to the coupling direction, and the inclined portion is pressed by the columnar pressing protrusion formed on the slider. To do. Even in this way, as in the embodiment, the male housing of the male connector can be pushed in the coupling direction by the elastic force of the spring provided on the slider.

10: Electrical connector 12: Female connector 14: Female contact 16: Female contact body 18: Contact portion 20: Connection portion 22: Electric wire 24: Female housing 26: Coupling portion 28: Electric wire support portion 30: Front surface 32: Opening 34: Recess 36: Passing groove 38: Rear surface 40: Upper surface 42: Bottom surface 44: One side surface 46: The other side surface 48: Window portion 50: Internal space 52: Fixed piece 54: Wedge-shaped groove 56: Guide groove 58: Built-in part 60: Communication part 62: Guide part 64: Upper step part 66: Locking part 68: Lower step part 70: Mounting part 72: Wall part 74: Guide groove 75: Tunnel groove 76: Entrance side 78: Slider 80: Front Wall part 82: Insertion slot 84: Rear wall part 86: Operation part 88: Upper wall part 90: Mountain part 92: Guide rail 94: Bottom wall part 96: One side wall part 98: The other Side wall part 102: Pressing protrusion 104: Inclined pressing part 106: Depression 108: Retaining surface 109: Pressing surface 110: First slit 112: Guide arm 114: Restricting part 116: Restricting protrusion 118: Second slit 120: Locking arm 122: Locking projection 124: Spring accommodating portion 126: Flat opening portion 128: Clearance 130: Spring 132: Female type retainer 134: Male connector 136: Male contact 138: Male contact body 140: Contact portion 142: Connection portion 144: Electric wire 146: Male housing 148: Insertion portion 150: Electric wire support portion 152: Front surface 154: Opening portion 156: Rear surface 158: Upper surface 160: Pressed protrusion 162: Curved surface portion 164: Planar portion 166: Pressed portion 168: Lock release protrusion 169: Chamfered portion 170: Bottom surface 172: One side Side 174: the other side 176: linear projection portion 178: inner space 180: fixing piece 182: wedge protrusion 184: guide protrusion 186: male retainer

Claims (10)

A male connector in which a movable member formed with a pressing projection is coupled to a female connector incorporated so as to be movable by an elastic member in a direction orthogonal to the coupling direction,
The male connector has a male contact of at least one, and the male housing in which the male contacts are housed, and
The male housing includes an unlocking portion that unlocks the movable member that is locked in a state in which the elastic member is elastically deformed and accumulated elastic force in the female connector, and the movable said pressing projection is opposed to formed side surface of the member, and the pressing projection which is pressed against the pressing projection, are formed,
When coupled to the female connector, the locking release portion of the male housing releases the locking of the movable member of the female connector, and the movable member on which the pressing protrusion is formed is elastic. is moved by the elastic force possessed by the member, the pressed protrusion of the male housing by the pressing protrusion of the elastic member by Ri before Symbol movable member to the elastic force of the female connector is moved is pressed, A male connector, wherein the male housing is pushed in a coupling direction. The pressed protrusion of the male housing is formed of a columnar body having a predetermined height,
2. The male connector according to claim 1, wherein the pressed protrusion is pressed at a portion where a connecting direction side of the pressing protrusion formed on the movable member of the female connector is inclined. Wherein the male housing pressed protrusion has an inclined pressing portion of predetermined height having a portion which is inclined opposite to the binding direction side,
The male connector according to claim 1, wherein the pressed protrusion is pressed by the pressing protrusion formed on a columnar body formed on the movable member of the female connector. The pressed protrusion is formed on the coupling direction side of the male housing compared to the locking release protrusion,
When being coupled to the female connector, the movable protrusion is released by the locking release protrusion after the pressed protrusion is disposed at a position where it can be pressed by the pressing protrusion. The male connector according to any one of claims 1 to 3 . A female connector to which the male connector according to any one of claims 1 to 4 is coupled,
The female connector includes at least one female contact to be in contact with the male contact, a female housing in which the female contact is accommodated and an internal space into which the male housing is inserted is formed. A movable member incorporated in the female housing, and an elastic member that presses the movable member,
The female housing is formed with a built-in portion into which the movable member is incorporated so as to be movable in a direction perpendicular to the coupling direction.
The movable member is formed with a locking projection, and the pressing projection on the side of the built-in portion disposed on the inner space side,
Wherein the embedded portion, and the locking portion to be locked with the locking projection, and the communicating portion to the internal space and communicating, are formed,
When it is combined with the previous Kieu connector,
The movable member is engaged with the engagement protrusion of the movable member and the engagement portion of the assembly portion and incorporated in the assembly portion in a state where the elastic member is elastically deformed and an elastic force is accumulated. And
The locking projection is released from locking with the locking portion by bringing it into contact with a locking release portion formed on a surface of the male connector that faces the locking projection,
The movable member is moved by the elastic force of the elastic member, and the pressed protrusion formed on the male housing is pressed by the pressing protrusion of the movable member moved by the elastic force of the elastic member, female connector, wherein the male housing is pushed into the coupling direction. The pressing protrusion has an inclined pressing portion in which the coupling direction side of the side to be pressed with the pressed protrusion of the male connector is inclined,
Wherein by the inclined pressing portion of the pressing projection, the female connector according to claim 5, wherein the pressed projection formed in the columnar body having a predetermined height of the male connector is characterized in that it is pressed. The pressing protrusion is formed of a columnar body having a predetermined height,
The female connector according to claim 5 , wherein the pressing protrusion presses a portion formed by inclining the opposite side to the coupling direction of the male connector. The pressing protrusion has a pressing surface formed along the coupling direction on the end side of the inclined pressing portion,
The female connector according to claim 6 , wherein the pressed protrusion of the male connector is continuously pressed by the pressing surface of the pressing protrusion of the movable member when coupled to the male connector. . 6. The female connector according to claim 5 , wherein the locking projection is formed on a locking arm that can be elastically deformed with respect to an opposite side locked with the locking portion. An electrical connector comprising the male connector according to any one of claims 1 to 4 and the female connector according to any one of claims 5 to 9 .

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