An automotive electrical distribution center assembly includes a mounting frame, a first pair of stacked gears rotatably attached to a side of the mounting frame and a second pair of stacked gears rotatably attached to an opposite side of the mounting frame, a moveable driver surrounding the mounting frame and defining four first linear gear racks that each engage a first gear of the first and second pairs of stacked gears, and an electrical distribution center attached to the driver. The electrical distribution center defines four second liner gear racks that each engage a second gear of the first and second pairs of stacked gears. Linear movement of the driver relative to the mounting frame causes rotational movement of the first and second pairs of stacked gears, thereby causing linear movement of the electrical distribution center to relative the mounting frame.

A female connector is connected to a male connector having a cylindrical hood portion open in the longitudinal direction and housing a plurality of terminals. The male connector has a holding portion holding a plurality of terminals arranged inside the hood portion when the female connector is connected to the male connector, a seal interposed between the outer surface of the holding portion and the inner surface of the hood portion, and a slider arranged along the outer surface of the hood portion. The slider is able to slide in the transverse direction and the sliding action causes the hood portion to be engaged so that force is applied to the hood portion in the direction in which the male connector connects to the female connector. A pressing portion is formed on the slider to press the hood portion into the holding portion.

A connector assembly includes a female housing (11) and a male housing (12) connectable to each other. Male terminal fittings (39) have tabs (41) projecting into a receptacle (36) of the male housing (12), and a moving plate (15) to be movably accommodated into the receptacle (36). The moving plate (15) includes a plate body (94) with positioning holes (96) enabling the insertion of the tabs (41) and a peripheral wall (95) connected to a periphery of the plate body (94) and slidable on an inner surface of the receptacle (36). An operating portion (103) for removal is provided on the peripheral wall (95) and is exposed from the receptacle (36).

A power terminal includes a terminal body having a mating portion including plates with a mating space therebetween. A spring clip is coupled to the mating portion and includes inner spring plates extending along the plates in the mating space with a slot therebetween. The inner spring plates directly engage and electrically connect to the terminal body and to a tab terminal received in the slot. The spring clip includes at least one cantilevered contact spring configured to be spring biased against and electrically connected to the tab terminal. The spring clip includes at least one stabilization contact spring spring biased against and electrically connected to the corresponding plate and configured to be spring biased against and electrically connected to the tab terminal. The stabilization contact spring provides a greater contact normal force against the tab terminal than the cantilevered contact spring.

A lever-type connector has a lever that rotates about a shaft on a first housing between a retracted position and a connection start position. The first housing and a second housing are connected by rotation of the lever from the connection start position. A detector is movable between a standby position and a detection position with respect to the lever. The lever includes a lock on an end separated from the shaft. The second housing includes a full locking portion to engage the lock when the housings are connected. The detector locks the lock at the standby position and becomes movable to the detection position when the full locking portion engages the lock. The first housing includes a housing-side lock, and the lever includes a lever-side lock that locks the housing-side lock at the retracted position. The lever-side lock is at a position different from the lock of the lever.

A lever-type connector (10) includes wires (24), a housing (14), a cover (32), a lever (16) and a binding band (44). The lever (16) is mounted on the housing (14) for rotation between connection start and connection end positions. The cover (32) includes a wire draw-out portion (34) for bending the wires (24) pulled from the housing (14) and a wire fixing portion (36) for fixing the wires (24) to the wire draw-out portion (34). The wire fixing portion (36) includes a first side wall (38) on an inner side, a second side wall (40) on an outer side and a bottom wall (42) between the first and second side walls (38, 40). Contact of the lever (16) with the second side wall (40) stops rotation at the connection start position. The bottom wall (42) includes two band insertion holes (46) through which the binding band (44) is inserted.

An electrical connectors housing for receiving a pair of mated electrical connectors designed to provide easy connection and prevent inadvertent disconnection of electrical connectors, comprises a male electrical connector housing member; a female electrical connector housing member configured to receive the male electrical connector housing member; and cam-lock couplings to lock together female and male electrical connector housing members.

A service plug includes a first connector housing, a second connector housing, and a lever that is rotatable about a rotational shaft on the second housing. The lever is movable between a first operating position and a second operating position. The second connector housing is in a non-fitted state, when the lever is in the first operating position. The second connector housing is in a fitted state, when the lever is in the second operating position. The lever includes a preventive wall at a terminating end portion of the cam groove.

A female housing (40) is formed with a cam pin (41) having a projecting dimension larger than cam projections (23) of a moving plate (18), and a lever (24) is formed with a cam groove (28) for accommodating the cam projections (23) and the cam pin (41) in the process of connecting/separating both housings (10, 40). An escaping space (31) communicates with the cam groove (28) and is configured to restrict entrance of the cam pin (41) by being shallower than the cam groove (28). In the process of rotating the lever (24) from an initial position to a connection position in a state where the housings (10, 40) are separated and the moving plate (18) is at a protecting position, the cam projections (23) are accommodated into the escaping space (31) while being kept out of contact with the lever (24).

A female connector is connected to a male connector having a cylindrical hood portion open in the longitudinal direction and housing a plurality of terminals. The male connector has a holding portion holding a plurality of terminals arranged inside the hood portion when the female connector is connected to the male connector, a seal interposed between the outer surface of the holding portion and the inner surface of the hood portion, and a slider arranged along the outer surface of the hood portion. The slider is able to slide in the transverse direction and the sliding action causes the hood portion to be engaged so that force is applied to the hood portion in the direction in which the male connector connects to the female connector. A pressing portion is formed on the slider to press the hood portion into the holding portion.