A preferred embodiment will be described below in greater detail with reference to the following drawings wherein
The connector 1 comprises a housing 2 in which there are provided first receiving chambers 3 and second receiving chambers 4 which are identical relative to one an-other. The receiving chambers 3, 4 are arranged so as to extend parallel to the longitudinal axis 5, with the connector 1, in the direction of the longitudinal axis 5, being connected to a counter connector.
The housing 2 comprises a rear side 6 and a front side 7 facing away therefrom. In the rear side 6, there are provided first rear side openings 8 which lead to the first receiving chambers 3, as well as second rear side openings 9 which lead to the second receiving chambers 4. In a cross-section viewed at a right angle relative to the longitudinal axis 5, the rear side openings 8, 9 have the same shape and size as the receiving chambers 3, 4.
The front side 7 comprises a first front side opening 9 which lead to the first receiving chambers 3 as well as second front side openings 10 which lead to the second receiving chambers 4. In a cross-sectional view, the front side openings 10, 11 are smaller than the receiving chambers 3, 4, so that the first front side opening 10 forms an inwardly pointing continuous first supporting face 12 and the second front side opening 11 forms a second continuous inwardly pointing supporting face 13.
In the first receiving chambers 3 there are arranged contact elements 14 which are inserted from the rear side 6 through the first rear side openings 8 into the first receiving chambers 3. At their ends facing the rear side 6 of the housing 2, the contact elements 14 are each connected to a cable 15 which is guided out of the respective first rear side opening 8 out of the first receiving chamber 3. Towards the front side 7 of the housing 2, the contact elements 14 are supported against the first supporting faces 12 because, at an end directed towards the front side 7, the contact elements 14 comprise a larger cross-section than the first front-side openings 10.
In the second receiving chambers 4 there are positioned sealing elements 16 which, by means of a sealing portion 17, project through the second rear side openings 9 from the second receiving chambers 4. Towards the front side 7, the sealing elements 16 are supported against the second supporting faces 13 because, at an end directed towards the front side 7, they comprise a greater cross-section than the second front side openings 11.
At the rear side 6, two mat seals 18, 19 rest against the housing. Per receiving chamber 3, 4, the mat seals 18, 19 comprise apertures 20, 21 which are each aligned with one of the rear side openings 8, 9. For the purpose of sealing the receiving chambers 3, 4, the mat seals 18, 19 rest sealingly against the rear side 6 of the housing 2. Furthermore, the cables 15 are sealingly guided through a first number of apertures 20, 21. In addition, the sealing portions 17 of the sealing elements 16 project into a second partial number of apertures 20, 21 and are positioned sealingly therein. For this purpose, the cross-sections of the sealing portions comprise approximately the same shape and size as the cables.
On the rear side 6 of the housing 2, a mat seal holder 22 is connected to the housing 2, which mat seal holder 22, by means of fixing arms 23, engages behind fixing projections 24 of the housing 2 and is removably connected to the housing 2. The mat seals 18, 19 are arranged between the mat seal holder 22 and the rear side 6 of the housing and held therebetween. The mat seal holder 22, per aperture 20, 21 of the mat seals 18, 19, is provided with apertures 25 which are aligned with the apertures 20, 21 of the mat seals 18, 19, so that cables 10 can be guided through the apertures 25 of the mat seal holder 22.
The contact elements 14 and the sealing elements 16 are secured by a secondary locking element 26 against being pulled out of the receiving chambers 3, 4. The locking of the contact elements 14 and of the sealing elements 16 is particularly clearly illustrated in
The secondary locking element 26 is comb-shaped, having a first arm 27, a second arm 28 and a third arm 29. By means of the arms 27, 28, 29, the secondary locking element 26 is guided in correspondingly designed guiding recesses 30, 31, 40 in the housing 2 so as to be displaceable transversely to the longitudinal axis 5 at the housing 2. The secondary locking element 26 is displaceable between a releasing position extracted out of the guiding recesses 30, 31, 40 and a locking position in which it is pushed into the guiding recess 30, 31, 40. The first arm 27 comprises a first locking projection which extends along a displacement axis 32 of the secondary locking element 26 and which extends partially transversely into a first partial number of receiving chambers, if the secondary locking element 26 is in its locking position. The second arm 28 comprises a second locking projection 34 which projects into a second partial number of receiving chambers 4. Furthermore, the second arm 28 comprises a third locking projection 35 which, in the locking position of the secondary locking element 26, projects into a third partial number of receiving chambers. A fourth locking projection 36 provided at the third arm 29 projects into a fourth partial number of the receiving chambers 3.
It can also be seen how the second locking projection 34 projects into the second receiving chamber 4, with the sealing element 16 comprising a locking recess 38 in the region of the second locking projection 34, wherein the locking recess 38 forming a locking face 39 which points towards the second locking projection 34 and which, if an attempt is made to pull the sealing element 16 out of the second receiving chamber 4, is supported against the second locking projection 34, so that the sealing element 14 is prevented from being pulled out.
Number | Date | Country | Kind |
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102006032575.3-34 | Jul 2006 | DE | national |