A waterproof connector includes a housing having a fitting portion to be fitted into a mounting hole of a mating member. A packing mounting surface is provided on an outer peripheral surface of the fitting portion. The waterproof connector further includes a first packing mounted on a rear end side of the packing mounting surface in a fitting direction of the fitting portion, a second packing mounted on a front end side of the packing mounting surface in the fitting direction of the fitting portion, and a retainer provided between the first packing and the second packing and locked to a locking portion provided on the outer peripheral surface of the fitting portion.

A connector structure includes a first housing, a first shield terminal to be accommodated into the first housing, a second housing connectable to the first housing, and a second shield terminal to be accommodated into the second housing. The first shield terminal includes first inner conductors and a first outer conductor. The second shield terminal includes second inner conductors and a second outer conductor. The first outer conductor includes a first fitting portion and a first non-fitting portion. The second outer conductor includes a second fitting portion and a cut portion. The first housing includes rattling suppressing portions for suppressing rattling of the first shield terminal by coming into contact with an exposed portion of the first fitting portion exposed from the cut portion and a locking lance for retaining the first shield terminal by being locked to a lance locking portion provided on the first non-fitting portion.

A connector (F) includes a housing (10), terminal fittings (72) fixed to front end parts of wires (71) and inserted into the housing (10) from behind and a slack holding portion (43) formed on the housing (10) and configured to hold the wires (71) drawn out backward from the housing (10) in a slackened state. If the wire (71) vibrates behind the housing (10), the wire (71) held in the slackened state by the slack holding portion (43) is resiliently deformed to change a curvature thereof near the housing (10). Vibration energy of the wire (71) is attenuated by the wire (71) itself being resiliently deformed.

A connector (F) includes an inner housing (11). Terminal fittings (72) are fixed to front end parts of wires (71) and are inserted into the inner housing (11) from behind. An outer housing (37) is held out of contact with the terminal fittings (72) and is mounted relatively displaceably with respect to the inner housing (11). Vibration damping rings (64) are fit externally on the wires (71) in a state out of contact with the inner housing (11), and are held resiliently in contact with the outer housing (37).

A plug connector for transmitting high-frequency signals includes a cable, a contact and a connecting element. The cable has a free end. The contact is mounted on the free end of the cable, and has a free contact end on a side facing away from the cable. The connecting element is disposed between the contact and the cable, and, in an assembled state, is fixedly connected to the contact and to the cable. The connecting element has a first portion with a first outer diameter on a side facing the contact and a second portion with a second outer diameter on a side facing the cable, the second outer diameter being larger than the first outer diameter. The first portion includes a third portion that has, at least in some regions of the third portion, an outer diameter corresponding to the second outer diameter.

A connector 10, 10A includes a male terminal 50, 50A including a tab 52, 52A, a female terminal 70 connectable to the tab 52, 52A, and a housing 20, 20A. The housing 20, 20A includes a holding portion 22 for holding the male terminal 50, 50A and a cavity 23 for accommodating the female terminal 70. One end of the cavity 23 is closed by a wall surface 32 of the holding portion 22. The tab 52, 52A is arranged to project into the cavity 23 from the wall surface 32 of the holding portion 22.

A connector includes a housing body provided with a plurality of cavities inside, a front mask to be mounted on a front surface of the housing body, and a lock arm extending rearward from a base end portion provided on the housing body. The front mask includes a locking portion to be locked to the base end portion.

A connector includes a terminal having a base plate portion and a pair of elastic curl portions, a connector housing having a terminal accommodating chamber, a flexible locking piece provided on a first wall of facing walls of the terminal accommodating chamber, a recessed groove provided on a second wall of the facing walls, extends from a rear side of the connector housing toward a front side of the connector housing along a terminal insertion direction of the terminal, and has a groove width smaller than a width of the base plate portion, and a contact surface formed at a front end portion of the recessed groove. When the terminal is reversely inserted, tip end contact portions of the elastic curl portions are brought into contact with the contact surface to prevent the terminal from being inserted further.

An electrical contact a mating portion for mating with a mating contact. The mating portion has a contact portion and a retention portion. The mating portion has a mating portion bottom wall, a mating portion top wall and mating portion side walls. A respective mating portion side wall has an upper portion which extends beyond the top wall. The retention portion has a retention portion top wall, a retention portion side wall and a retention portion back wall. The retention portion back wall is configured to approximate the space provided between the mating portion top wall, the upper portion of the respective mating portion side wall, the retention portion top wall and a retention portion side wall. The retention portion back wall prevents damage or deformation of the retention portion as a force applied to the retention portion.

An example connector includes a housing made of a dielectric material, in which cells are formed. Terminals are housed in the cells and extend essentially in a longitudinal direction. The housing is also equipped with a terminal position assurance device having locking means interacting with a stop surface located on the terminal. The terminal position assurance device may possibly have a system of ramps arranged to move the locking means sequentially, perpendicularly to the longitudinal direction, and then parallel to the longitudinal direction. The leakage path between two terminals can then be lengthened.