JP5995105B2 - connector - Google Patents

Description

  The present invention relates to a connector.

  Conventionally, a connector described in Patent Document 1 described below is known as a connector for preventing a failure at the time of connector fitting due to an error in dimensional accuracy or the like. In this connector, the leaf spring of the spring washer placed between the connector body and the bottom plate portion bends when the mating connector is inserted, so that the connector body swings according to the position of the mating connector. It is supposed to be.

JP 2000-277217 A

By the way, when connecting the above connector to the terminal of the electric wire fixed to the vehicle, the electric wire drawn out from the connector body vibrates with the vibration of the vehicle, and this vibration is transmitted to the terminal through the electric wire. There is a concern that defects may occur in the connection portion between the mating terminal and the terminal of the mating connector.
In addition, since the above-mentioned connector is fixed so that the terminal cannot move with respect to the connector body, for example, when the mating terminal of the mating connector is shifted and disposed, the mating terminal and the terminal are not connected. Therefore, when the connector and the mating connector are fitted together, the terminal and the mating terminal may not be properly connected.

For this reason, a relay terminal is connected to the end of the electric wire, and the relay terminal is bolted to the connector body to cut off vibrations from the vehicle, and a stretchable conductor having elasticity is used between the relay terminal and the terminal. Therefore, a method for causing the expandable conductor to function as a tolerance absorbing portion has been studied.
However, according to this method, the number of parts such as relay terminals and bolts increases, and the number of work steps for connecting the relay terminals and fixing the bolts increases, resulting in an increase in manufacturing cost.

  The present invention has been completed on the basis of the above circumstances, and it is possible to cut off vibrations from electric wires while absorbing dimensional tolerances and assembly tolerances without increasing the number of parts and work man-hours. Objective.

  As a means for achieving the above object, the present invention provides a connector connected to a terminal of an electric wire in which a core wire made of a plurality of metal wires is covered with an insulating coating, and fitted to a mating member, the electric wire A terminal connected to a counterpart terminal provided on the counterpart member, a housing into which the electric wire is introduced together with the terminal, and fixed to the counterpart member in a state of covering the housing. And a resinous electric wire mold body fixed in close contact with the insulation coating of the electric wire, and the electric wire mold body is attached to the shield shell by screw fixing means provided on the electric wire mold body. The wire, which is screwed and introduced into the housing, has a tolerance absorbing portion formed by bending so that an extra length is generated in the core wire exposed by removing the insulating coating. Having the features in place are.

According to the connector having such a configuration, the vibration from the electric wire can be blocked by the mold part fixed to the mating member via the shield shell. Also, since the tolerance absorbing part provided on the electric wire in the housing expands and contracts by the amount of extra length, it absorbs dimensional tolerance and assembly tolerance between the mating terminal and the terminal, and resin and metal The sliding wear between the mating terminal and the terminal caused by the difference in linear expansion coefficient can be suppressed.
In other words, the wire mold body fixed to the wire is screwed to the shield shell, and the core wire exposed in the wire is bent so as to create an extra length, and the tolerance absorbing part is provided, thereby increasing the number of parts and work man-hours. Without making it happen, it is possible to absorb the dimensional tolerance and the assembly tolerance in the tolerance absorbing portion while blocking the vibration transmitted from the electric wire.

The following configuration is preferable as an embodiment of the present invention.
The tolerance absorbing portion may be bent by applying pressure in the axial direction to the core wire.
According to such a configuration, it is possible to form a tolerance absorbing portion that can be expanded and contracted simply by bending the core wire by applying pressure in the axial direction to the core wire, and the tolerance absorbing portion causes a dimensional tolerance between the mating terminal and the terminal. Assembling tolerances can be reliably absorbed, and sliding wear between the mating terminal and the terminal caused by the difference between the linear expansion coefficients of the resin and metal can be reliably prevented.

The electric wire mold body and the shield shell may be configured to be screw-fixed by tightening screws in a direction intersecting an axial direction of the electric wire arranged in the electric wire mold body.
According to such a structure, the direction which tightens a screw will cross | intersect with the vibration transmitted to the axial direction of an electric wire, and the vibration transmitted through an electric wire can be interrupted | blocked firmly.

The housing may be configured to have a fitting portion that is movable in a direction crossing the fitting direction in a state in which the terminal is accommodated and fitted to the mating member.
According to such a configuration, the fitting portion moves in a direction perpendicular to the fitting direction with respect to the mating member, the tolerance absorbing portion expands and contracts, and the fitting portion has an assembly tolerance with the mating member. Since the dimensional tolerance is absorbed, the mating terminal and the terminal can be reliably connected.

The electric wire is introduced into the housing from a direction intersecting with the fitting direction, and the electric wire is arranged from the position where the electric wire is introduced toward the fitting direction by bending the cross absorbing portion. It is good also as the structure currently searched.
For example, because the insulation coating for thick wires for high voltage is thick, when the wires are bent and routed in a direction crossing the fitting direction, the bending radius of the wires cannot be reduced and the housing becomes larger. End up. However, according to the above configuration, the cross absorption part formed by removing the insulation coating of the electric wire is bent to reduce the bending radius, so that the electric wire is routed in the housing without increasing the size of the housing. can do.

  According to the present invention, it is possible to block vibration from the electric wire while absorbing dimensional tolerance and assembly tolerance without increasing the number of parts and the number of work steps.

Connector perspective view Front view Plan view Side view Rear view BB sectional view of FIG. AA line sectional view of FIG.

<Embodiment>
An embodiment of the present invention will be described with reference to FIGS.
This embodiment illustrates a connector 10 that is attached and fixed to a shield case (not shown) such as an inverter or a motor of a vehicle such as a hybrid vehicle or an electric vehicle. Inside the shield case, a device-side connector (not shown) that can be fitted with the connector 10 is arranged at a position facing the connector 10 in the fitting direction. A combination of the shield case and the device-side connector corresponds to the counterpart member. In the following description, the vertical direction is based on the vertical direction in FIG. 2, and the horizontal direction is based on the horizontal direction in FIG. The front-rear direction will be described with the left-right direction in FIG. 6 as a reference, the left side in the figure as the front side, and the right side in the figure as the rear side.

As shown in FIGS. 6 and 7, the connector 10 includes a plurality (six in this embodiment) of female terminals (corresponding to “terminals”) 30 connected to the terminal of the high-voltage electric wire 20, and a plurality of The housing 40 is configured to include the female terminals 30 side by side in the left-right direction, and a shield shell 80 that covers the housing 40 from the rear.
The electric wire 20 is configured such that a core wire 21 formed by bundling a plurality of metal wires is covered with an insulating coating 22 made of synthetic resin. In addition, the core wire 21 may be a core wire obtained by twisting each metal strand, or may be a straight core wire in which each metal strand is not twisted. The core wire 21 is flexible enough to be bent substantially orthogonally or more, and the core wire 21 is covered with an insulating coating 22 so that the wire has a high rigidity and a large bending radius.
The female terminal 30 includes a rectangular tube-shaped terminal connection portion 31 that is connected to a male terminal (corresponding to a “mating terminal”) (not shown) provided in the device-side connector, and a terminal of the electric wire 20. It is set as the form which arranged in the front-back direction the electric wire connection part 32 to which the insulation core 22 was removed and the exposed core wire 21 is crimped | bonded.

  As shown in FIGS. 6 and 7, the housing 40 includes a metal plate 41 fixed to the shield case and a housing body 50 assembled to the shield case so as to close an attachment hole (not shown) provided in the shield case. And the fitting part 60 which can be fitted to an apparatus side connector is comprised.

As shown in FIGS. 1 and 2, the metal plate 41 has a substantially rectangular flat plate shape that is horizontally long in the left-right direction. The upper edge of the metal plate 41 is bent rearward as shown in FIG. Formed bends 42 are provided.
As shown in FIGS. 1, 2, and 5, a pair of upper and lower through holes 43 that penetrate the metal plate 41 in the plate thickness direction are provided at both left and right ends of the metal plate 41. A fixing bolt (not shown) can be inserted into each through-hole 43, and the housing 40 is fixed to the shield case by inserting the fixing bolt into the through-hole 43 and tightening it into the shield case. ing.
As shown in FIG. 6, a central opening that penetrates in the front-rear direction, which is the thickness direction, is provided at a substantially central portion of the metal plate 41, and the housing main body 50 is disposed through the central opening so as to penetrate the central opening. And is integrally formed.

  The housing body 50 is made of synthetic resin, and as shown in FIG. 6, the lower half of the housing body 50 is an electric wire introduction portion 51 into which a plurality of electric wires 20 are collectively introduced from below. The wire introduction part 51 has a horizontally long cylindrical shape in the left-right direction, and a wire mold body 70 in which a plurality of wires 20 are integrated together can be fitted into the wire introduction part 51 from below. .

As shown in FIG. 7, the wire mold body 70 is fixed in close contact with the insulating coating 22 by collectively resin-molding a plurality of wires 20 arranged in a line in the left-right direction. It has a substantially cylindrical shape.
As shown in FIGS. 6 and 7, a seal mounting groove 71 into which a seal ring 72 is fitted is provided on the outer peripheral surface of the upper end of the wire mold body 70. When the wire mold body 70 is fitted in the electric wire introduction part 51, the seal ring 72 is in close contact with the inner peripheral surface of the electric wire introduction part 51 and the outer peripheral surface of the electric wire mold body 70, and the electric wire introduction. It seals so that water etc. may not enter from the part 51 inside.

  As shown in FIGS. 4 and 7, a locking frame 73 that can be locked with a pair of locking projections 52 provided on the outer peripheral surface of the wire introducing portion 51 is provided at the lower left and right ends of the wire mold body 70. Is provided. When the electric wire introduction part 51 and the electric wire mold body 70 are properly fitted, the engagement frame 73 is engaged with the engagement protrusion 52 in the vertical direction so that the electric wire mold body 70 is not dropped from the electric wire introduction part 51. Is done.

As shown in FIG. 6, the upper half of the housing main body 50 is a wire housing portion 54 having a plurality of housing chambers 53 for individually housing the plurality of wires 20 introduced from the wire introducing portion 51.
The storage chambers 53 are provided side by side in the left-right direction, and the adjacent storage chambers 53 are completely partitioned by a partition wall 55.
As shown in FIGS. 1, 2, and 6, a mounting recess 56 that opens in a substantially rectangular shape toward the front is provided at the front end portion of the electric wire housing portion 54.
The mounting recess 56 is configured to penetrate the central opening of the metal plate 41 in the front-rear direction, and a seal mounting portion 57 that extends in a flange shape along the front surface of the metal plate 41 is provided at the front end of the mounting recess 56. ing.

The seal mounting portion 57 is formed to have a size that covers the entire mounting hole of the shield case, and an annular surface seal 58 is attached to the front surface of the seal mounting portion 57. When the metal plate 41 is fixed to the shield case, the face seal 58 is in close contact with the seal attachment portion 57 and the opening edge of the attachment hole in the shield case, so that water or the like is shielded between the seal attachment portion 57 and the shield case. It is sealed so as not to enter the case.
As shown in FIG. 6, the fitting portion 60 can be accommodated inside the mounting recess 56 from the front. As shown in FIGS. 1, 3, and 4, the fitting portion 60 has a horizontally long block shape in the left-right direction, and a plurality of cavities 61 that are arranged side by side in the left-right direction inside the fitting portion 60. Is provided. As shown in FIG. 6, the adjacent cavities 61 are partitioned by a fitting-part-side partition wall 62, and the female terminals 30 are held in the cavities 61 in a state in which the female terminals 30 are prevented from coming off.

  As shown in FIGS. 6 and 7, a flange portion 63 that protrudes outward is provided on the outer peripheral surface of the rear end of the fitting portion 60. The flange portion 63 has a shape slightly smaller than the inner peripheral shape of the mounting recess 56, and when the fitting portion 60 is inserted into the mounting recess 56, the outer peripheral surface of the flange portion 63 and the inner periphery of the mounting recess 56. The fitting portion 60 is accommodated in the mounting recess 56 with a clearance CL between the surface and the surface. Further, when the fitting portion 60 is inserted into the mounting recess 56, the rear surface of the flange portion 63 comes into contact with the front end surface of the partition wall 55 of the wire housing portion 54, and the fitting portion 60 is stopped afterward.

  An annular front retainer R can be mounted in front of the flange portion 63 in the mounting recess 56. On the outer peripheral surface of the front retainer R, there is provided a locking hole R1 into which a locking projection 56A provided on the upper and lower surfaces in the mounting recess 56 is fitted, and the front retainer R is properly attached to the mounting recess 56. When mounted in the position, the front retainer R is prevented from coming off in the mounting recess 56 by fitting the locking projection 56A into the locking hole R1. Further, when the front retainer R is prevented from slipping into the mounting recess 56, the flange portion 63 of the fitting portion 60 is locked from the front by the front retainer R, and the fitting portion 60 is stopped in front. The fitting portion 60 can be moved up and down and left and right by the clearance CL generated between the mounting recess 56 and the flange portion 63.

  A working hole 59 that opens to the rear is provided at the rear end of the electric wire housing portion 54, and the work in the electric wire housing portion 54 can be performed from the rear through the working hole 59. A cover C provided with a cover seal ring C 1 that is in close contact with the inner peripheral surface of the work hole 59 can be attached to the work hole 59. After the work in the electric wire accommodating portion 54 is performed through the work hole 59, the cover C is attached to the work hole 59, whereby the inner peripheral surface of the work hole 59 and the cover C are sealed by the cover seal ring C1. It has become so.

  The shield shell 80 is formed by pressing a conductive metal plate material. As shown in FIGS. 3 to 6, the shield shell 80 is formed so as to be fixed to the metal plate 41 so as to cover the housing body 50 from the rear, and portions other than the front surface and the lower surface of the housing body 50 are formed. The cover part 81 to cover and the attachment piece 82 which protrudes outward from the front-end edge of the cover part 81 are provided.

  The mounting piece 82 can be assembled in a state of being in surface contact with the rear surface of the metal plate 41. As shown in FIG. 5 and FIG. A pair of upper and lower bolt insertion holes 83 penetrating in the thickness direction are provided. Fixing bolts (not shown) can be inserted into the bolt insertion holes 83, and these bolt insertion holes 83 are arranged corresponding to the respective through holes 43 of the metal plate 41. When the attachment piece 82 is assembled to the rear surface of the metal plate 41, the bolt insertion hole 83 and the through hole 43 communicate with each other as shown in FIG. In a state where the shield shell 80 is electrically connected to the shield case via the metal plate 41 by inserting the fixing bolt into the continuous bolt insertion hole 83 and the through hole 43 and tightening it in the shield case. Fixed.

Now, as shown in FIG. 6, each electric wire 20 introduced from the electric wire introducing portion 51 into the electric wire accommodating portion 54 has a position slightly above the electric wire mold body 70 to a position connected to the female terminal 30. A tolerance absorber 23 is provided in the range.
The tolerance absorbing portion 23 is bent so as to buckle the so-called core wire 21 by applying an axial pressure to the exposed core wire 21 by removing the insulating coating 22 and causing the core wire 21 to have an extra length. Is formed. Specifically, the tolerance absorbing portion 23 is bent obliquely upward and rearward from the end of the insulating coating 22 and then bent forward, and the tolerance absorbing portion 23 is equivalent to the amount of extra length. It can be expanded and contracted back and forth and up and down and left and right.

  Moreover, since the insulation coating 22 is thick in the high voltage electric wire 20, if the electric wire 20 that is not stripped of the insulation coating 22 is bent forward from below, the bend radius is increased. However, since the tolerance absorbing portion 23 has a shape in which the core wire 21 from which the insulating coating 22 is removed is bent obliquely upward and rearward from the electric wire introduction portion 51 and then curved forward, the bending radius of the electric wire 20 is reduced. It is now possible to route from the bottom to the front.

  Further, as shown in FIG. 6, the electric wire mold 70 is tightened in a direction intersecting the axial direction of the electric wire 20 by tightening a fixing screw S through which the screw insertion hole 84 of the shield shell 80 is inserted, as shown in FIG. 6. A pair of mounting seats 74 for fixing the body 70 and the shield shell 80 to each other are provided. A combination of the mounting seat 74 and the fixing screw S corresponds to a screw fixing means.

  The pair of mounting seats 74 are arranged side by side at the rear lower end portion of the electric wire mold body 70, and each mounting seat 74 has a form protruding rearward from an opening provided behind the electric wire introducing portion 51. Yes. Inside the mounting seat 74, a nut 75 that slightly protrudes rearward from the rear surface of the mounting seat 74 is press-fitted from the rear, and a concave relief that is coaxial with the screw hole 76 of the nut 75 is inserted in front of the nut 75. A recess 77 is provided. The shaft portion of the fixing screw S can be accommodated from behind in the escape recess 77, and the shaft portion of the fixing screw S that has passed through the nut 75 is accommodated in the escape recess 77, so that the fixing screw S and Interference with the wire mold body 70 is prevented.

  The pair of screw insertion holes 84 of the shield shell 80 are provided side by side on the left and right sides of the rear surface of the cover 81. The fixing screw S can be inserted into each screw insertion hole 84, and each screw insertion hole 84 is disposed so as to correspond to the mounting seat 74 of the electric wire mold body 70. Then, the shield shell 80 and the electric wire mold body 70 are firmly fixed to each other by inserting the fixing screw S through the screw insertion hole 84 and tightening the nut 75 of the mounting seat 74. That is, the wire mold body 70 is firmly fixed to the shield case via the shield shell 80.

The connector 10 of the present embodiment has the above-described configuration. Next, an example of the assembly procedure of the connector 10 will be briefly described, and then the operational effects of the connector 10 will be described.
First, the insulation coating 22 is removed by peeling off the insulation coating 22 at the ends of the plurality of wires 20 collected by the wire mold body 70. Here, the range in which the insulating coating 22 is removed is from the position slightly on the tip side of the wire mold body 70 to the end of the electric wire 20, and the female terminal 30 is crimped to the exposed end of each core wire 21. By repeating this procedure, a core wire 21 that is exposed over a wide range and is crimped to the female terminal 30 is formed at the end of each electric wire 20.

  Next, the electric wire 20 to which each female terminal 30 is connected is inserted into the electric wire introduction part 51 of the housing body 50, and each female terminal 30 is pulled out from the mounting recess 56 forward via the electric wire accommodating part 54.

  When the female terminals 30 are pulled out from the housing body 50, the female terminals 30 are inserted into the cavities 61 of the fitting portions 60, and the female terminals 30 are prevented from being detached in the fitting portions 60 and held. Thereby, the fitting part 60 is attached to the terminal of the electric wire 20.

   Next, the electric wire 20 is pulled backward from the work hole 59, and the electric wire 20 is pulled back into the electric wire housing portion 54. Here, when the fitting portion 60 is housed in the mounting recess 56 by pulling back the electric wire 20, the rear surface of the flange portion 63 of the fitting portion 60 comes into contact with the front end surface of the partition wall 55 of the wire housing portion 54. The fitting part 60 is stopped afterward. When the fitting portion 60 is accommodated in the mounting recess 56, the front retainer R is inserted into the mounting recess 56, and the locking protrusion 52 of the mounting recess 56 is fitted into the locking hole R1 of the front retainer R. The front retainer R is prevented from coming off in the mounting recess 56.

Further, when the front retainer R is prevented from slipping into the mounting recess 56, the flange portion 63 of the fitting portion 60 is locked from the front by the front retainer R, and the fitting portion 60 is stopped in front. As a result, the fitting portion 60 is held in the mounting recess 56 so as to be movable up and down and left and right.
Further, when the fitting portion 60 is held in the mounting recess 56, both end portions of the exposed core wire 21 disposed in the electric wire housing portion 54 are held, so that pressure is applied to the core wire 21 in the axial direction. In addition, the core wire 21 is bent so that a surplus length is generated. As a result, the tolerance absorbing portion 23 is formed in the electric wire 20 disposed in the electric wire housing portion 54 after being bent obliquely upward and rearward from the end of the insulating coating 22 and then bent forward.
When the cover C is attached to the work hole 59 to close the work hole 59, the space between the work hole 59 and the cover C is sealed by the cover seal ring C1.

  Next, the shield shell 80 is assembled so as to cover the housing body 50 from the rear by the cover portion 81 of the shield shell 80, the attachment piece 82 of the shield shell 80 is brought into contact with the rear surface of the metal plate 41, and The cover 81 is brought into contact with the nut 75 of the mounting seat 74. Then, the shield shell 80 and the electric wire mold body 70 are firmly fixed to each other by inserting the fixing screw S through the screw insertion hole 84 of the covering portion 81 and tightening the fixing screw S into the nut 75. Thereby, the connector 10 is completed.

  The completed connector 10 is assembled to the shield case so as to cover the attachment hole of the shield case while fitting the fitting portion 60 to the device-side connector. Here, the fitting part 60 can be moved up and down, left and right (direction orthogonal to the fitting direction) with respect to the device-side connector, and the wire 20 has the extra length of the tolerance absorbing part 23. Therefore, the male terminal and the female terminal 30 can be properly connected by absorbing the dimensional tolerance and assembly tolerance with the device-side connector.

  When the connector 10 has been assembled to the shield case, the connector 10 is fixed to the shield case by inserting a fixing bolt into the bolt insertion hole 83 and the through hole 43 and tightening it into the shield case. Further, the shield shell 80 is firmly fixed in a state where it is electrically connected to the shield case via the metal plate 41.

  As described above, according to the present embodiment, the fitting portion 60 to be fitted with the device-side connector is configured to be movable up and down and left and right, and the core wire 21 of the electric wire 20 disposed in the electric wire housing portion 54 is exposed. In addition, by simply bending the core wire 21 so as to generate a surplus length and forming the tolerance absorbing portion 23, the dimensional tolerance and assembly tolerance between the fitting portion 60 and the device-side connector are absorbed, and the female terminal 30 and the male The terminal and female can be properly connected. Further, even when the connecting portion between the female terminal 30 and the male terminal tries to slide due to the difference in linear expansion coefficient between the resin and the metal, the tolerance absorbing portion 23 expands and contracts by the extra length. It is possible to prevent the connecting portion between the connector and the male terminal from being slid and worn.

  Moreover, according to this embodiment, since the electric wire 20 is resin-molded to form the electric wire mold body 70 and the electric wire mold body 70 is firmly fixed to the shield case via the shield shell 80, for example, the electric wire 20 Even if it vibrates in the vertical direction with the vibration of the vehicle, the vibration from the electric wire 20 can be cut off at the position of the electric wire mold body 70. Thereby, it is possible to prevent the vibration from being transmitted to the connection portion where the female terminal 30 and the male terminal are connected, and wear of the connection portion.

  That is, for example, a relay terminal is connected to the end of the electric wire, and the relay terminal is bolted to the connector body to block vibration from the vehicle, and an elastic conductor having elasticity between the relay terminal and the terminal is provided. By using it, the vibration from the electric wire 20 is cut off while absorbing dimensional tolerances and assembly tolerances without increasing the number of parts and work man-hours, compared to a method in which the expandable conductor functions as a tolerance absorber. can do.

  Further, according to the present embodiment, in addition to the above, since the fastening direction of the fixing screw S intersects the axial direction of the electric wire 20 disposed in the electric wire mold body 70, vibration transmitted in the axial direction of the electric wire 20 Can be shut off firmly.

<Other embodiments>
The present invention is not limited to the embodiments described with reference to the above description and drawings. For example, the following embodiments are also included in the technical scope of the present invention.
(1) In the above embodiment, pressure is applied to the exposed core wire 21 in the axial direction, the core wire 21 is bent obliquely rearward from below, and then curved toward the front, thereby forming the tolerance absorbing portion 23. Although the present invention is configured, the present invention is not limited to such an embodiment. For example, pressure is applied to the exposed core wire 21 in the axial direction so that the core wire 21 is bent in a substantially L shape from the bottom to the front. Therefore, the tolerance absorbing portion may be formed, and a housing in which the introduction direction of the electric wire and the fitting direction of the fitting portion are the same direction is formed, and pressure is applied to the exposed core wire 21 in the axial direction to The tolerance absorbing portion may be formed by bending so as to project in the radial direction.
(2) In the above embodiment, the tolerance absorbing portion 23 is configured by removing all the insulation coating 22 of the electric wire 20 arranged in the electric wire accommodating portion 54, but the present invention is not limited to such an aspect. Alternatively, for example, the tolerance absorbing portion may be configured by removing a part of the insulation coating of the electric wire arranged in the electric wire housing portion.
(3) In the said embodiment, although it was set as the structure by which the six electric wires 20 were introduce | transduced in the electric wire accommodating part 54, this invention is not limited to such an aspect, For example, it introduce | transduces in an electric wire accommodating part. Two or three wires may be used, or seven or more wires may be used.

  (4) In the above embodiment, the nut 75 is press-fitted and fixed to the wire mold body 70, and the fixing screw S through which the screw insertion hole 84 of the shield shell 80 is inserted is tightened into the nut 75. The shield shell 80 is screwed, but the present invention is not limited to such an embodiment. For example, the stud bolt is fixed to the wire mold body, and the stud bolt is inserted into the screw insertion hole of the shield shell. The wire mold body and the shield shell may be screw-fixed by inserting them and tightening nuts on the stud bolts.

10: Connector 20: Electric wire 21: Core wire 22: Insulation coating 23: Tolerance absorber 30: Female terminal (terminal)
40: Housing 60: Fitting part 70: Electric wire mold body 75: Nut (screw fixing means)
80: Shield shell S: Fixing screw (screw fixing means)

Claims (5)

It is a connector that is connected to the end of an electric wire in which a core wire composed of a plurality of metal strands is covered with an insulating coating, and is fitted to a counterpart member,
A terminal connected to a terminal of the electric wire and connected to a counterpart terminal provided in the counterpart member;
A housing into which the wire is introduced together with the terminal;
A shield shell fixed to the mating member in a state of covering the housing;
A resinous wire mold body fixed in close contact with the insulating coating of the wire,
The wire mold body is screwed to the shield shell by screw fixing means provided on the wire mold body,
The connector having a tolerance absorbing portion formed by bending the electric wire introduced into the housing so that a surplus length is generated in the exposed core wire by removing the insulating coating.   The connector according to claim 1, wherein the tolerance absorbing portion is bent by applying pressure to the core wire in an axial direction.   The connector according to claim 1 or 2, wherein the wire mold body and the shield shell are fixed by screwing in a direction intersecting an axial direction of the wire arranged in the wire mold body. .   4. The housing according to claim 1, wherein the housing has a fitting portion that is movable in a direction intersecting with the fitting direction in a state in which the terminal is accommodated and that is fitted to the mating member. The connector according to any one of the above. The electric wire is introduced into the housing from a direction intersecting the fitting direction,
The connector according to any one of claims 1 to 4, wherein the electric wire is routed in a fitting direction from a position where the electric wire is introduced by bending the cross absorbing portion.

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