9582results about "Engagement/disengagement of coupling parts" patented technology

A bayonet electrical connector has a spring loaded safety pin for locking the bayonet coupling. The pin projects into a recess, and a sleeve surrounds the part having the recess. The sleeve has a tab which projects into the recess, the sleeve being slidable to make the tab depress the pin against the spring bias of the pin, thereby to enable subsequent disconnection of the bayonet coupling. This design maintains a locking mechanism to prevent accidental decoupling of the bayonet connection, but makes the decoupling process simpler, by using, sliding of the sleeve and twisting to release the bayonet coupling.

A coaxial cable connector generally includes a connector body, a nut rotatably coupled to the connector body, a post disposed in the connector body and a biasing element acting between the post and the nut. The nut has an internal thread for engagement with an external thread of a mating connector. The internal thread of the nut and the external thread of the mating connector can be mismatched, wherein an interference fit is created therebetween upon connection of the nut to the mating connector. Also, the post can have a forward flanged base portion disposed within the axial length of the internally threaded surface of the nut, which, together with the biasing element, provides a constant force between the post and the nut.

An electrical connector system has two connectors, one of which is included in a module mateable with the other connector in a pluggable manner. The other connector includes an elongated guide rail and a connector block in which are retained two or more electrical contacts. Signal connections can be made in a predetermined sequence when the module is plugged into the other connector because the contact pads of the module are of different lengths. For example, sequencing the connection of power and ground signals with respect to data signals provides hot-pluggability. Also, a grounding contact on the module is engaged by a spring clip on the other connector to provide an additional or alternative grounding path.

A click-tight coaxial cable continuity connector is provided comprising a connector body, a post engageable with connector body, the post including a flange having a plurality of spaced-apart surface features. A nut is rotatably movable with respect to the post, wherein the nut includes an internal lip having a plurality of spaced-apart surface features, wherein the plurality of spaced-apart surface features of the nut are dimensioned to oppositely correspond in size, number and location to the plurality of spaced-apart surface features of the post. A click-tight continuity member is structurally configured to operably correspond with the dimensions of the plurality of spaced-apart surface features of the nut and also the spaced apart surface features of the post, the click-tight continuity member residing between the nut and the post. When the nut is rotated with respect to the post, the click-tight continuity member affords intermittent rotational resistance upon the nut, via structurally-induced compression forces resultant when the plurality of spaced-apart surface features of the nut are not oppositely correspondingly aligned with the plurality of spaced-apart surface features of the post.

Disclosed is a LGA socket connector including an insulative housing (2), a stiffener (3), a clip (4), and a lever (5) defining thereof a driving portion (50) and a locking portion (52) linked thereto. The stiffener is configured to grasp a periphery of the housing. The clip and the locking portion of the lever are essentially pivotally moved about longitudinal ends of the housing respectively, but with the driving portion disposed adjacent one transverse side of the housing. At least one of the clip and the stiffener is provided with a recessed region (300) adjacent said transverse side of the housing, thereby preventing the whole connector from becoming inclined when the connector is horizontally locked and placed on the printed circuit board.

An SFP module includes a housing (1) and an ejector (70). An ejector seat (111) is formed in the housing for receiving the ejector. A triangular latch (114) is formed on the housing behind the ejector seat. The ejector includes a push bar (79) exposed forward of a front end (17) of the housing, and a tongue board (74). Two ejecting protrusions (741) are formed at a rear end of the tongue board, corresponding to a spring tab (611) of an SFP cage (6). The spring tab defines a retaining hole (613) for retaining the latch of the housing. When the SFP module is withdrawn from the cage, the push bar is pressed until the protrusions of the ejector have released the spring tab from the latch of the housing. The SFP module is then ejected from the cage by conventional spring means located in a rear of the cage.