An electrical connector includes a connector housing having a base, a flange, and a plug. The connector housing has a contact channel holding a contact. The electrical connector includes a latch member integral with the connector housing and located within the flange. The latch member includes a deflectable latch arm and a latching finger extending from the latch arm. The plug is configured to be inserted into a panel opening of the panel in a loading direction. The connector housing is movable laterally relative to the panel in a latching direction to a latched position. The plug is movable in the panel opening in the latching direction. The latching finger engages an inner edge of the panel opening when the housing is in the latched position to hold the connector housing in the latched position.

A hybrid edge connector includes an insulative housing with a slot lined with signal terminals, in a signal portion, and power terminals in a power portion. The power terminals may be made with multiple layers, with each layer formed into one or more fingers. Each finger may be configured to make contact with an edge of a card inserted in the slot such that each terminal has multiple contact points to the card and can carry a large current. To support a large current, the card may be a hybrid card, with a signal portion formed using a conventional PCB manufacturing techniques and a power portion formed with one or more blades mechanically coupled to the signal portion. The slot in the connector housing may have different widths in the signal and power portions and the center lines of those portions may be offset with respect to each other.

A hybrid edge connector includes an insulative housing with a slot lined with signal terminals, in a signal portion, and power terminals in a power portion. The power terminals may be made with multiple layers, with each layer formed into one or more fingers. Each finger may be configured to make contact with an edge of a card inserted in the slot such that each terminal has multiple contact points to the card and can carry a large current. To support a large current, the card may be a hybrid card, with a signal portion formed using a conventional PCB manufacturing techniques and a power portion formed with one or more blades mechanically coupled to the signal portion. The slot in the connector housing may have different widths in the signal and power portions and the center lines of those portions may be offset with respect to each other.

Methods and apparatus relating to a high density cable structure and wire termination are described. In one embodiment, a plug structure includes a paddle card to couple two wires to two gold fingers and a first add-on plug to couple a first wire to a first gold finger. The paddle card and the first add-on plug are to be stacked to form a single plug structure having a first row of gold fingers and a second row of gold fingers. Other embodiments are also claimed and disclosed.

Methods and apparatus relating to a high density cable structure and wire termination are described. In one embodiment, a plug structure includes a paddle card to couple two wires to two gold fingers and a first add-on plug to couple a first wire to a first gold finger. The paddle card and the first add-on plug are to be stacked to form a single plug structure having a first row of gold fingers and a second row of gold fingers. Other embodiments are also claimed and disclosed.

A connector assembly includes a first connector having a connector cover, a head guide formed on the connector cover, an arm guide connected to the connector cover, a first connector body connected to the arm guide, and a connector lever connected to the first connector body. A second connector is slidable along the first connector body and engageable to the connector lever. A slider is slidable along the head guide and the arm guide, and a position of the slider changes by being pressed by the second connector. The slider presses and deforms the connector lever. The connector assembly further includes an elastic body disposed on the arm guide and supporting the slider.

A connector assembly includes a first connector having a connector cover, a head guide formed on the connector cover, an arm guide connected to the connector cover, a first connector body connected to the arm guide, and a connector lever connected to the first connector body. A second connector is slidable along the first connector body and engageable to the connector lever. A slider is slidable along the head guide and the arm guide, and a position of the slider changes by being pressed by the second connector. The slider presses and deforms the connector lever. The connector assembly further includes an elastic body disposed on the arm guide and supporting the slider.

A cage assembly includes a cage including a top wall and a bottom wall and an electrical receptacle positioned between the top wall and the bottom wall such that the electrical receptacle floats within the cage in opposite directions between the top wall and the bottom wall.

A cage assembly includes a cage including a top wall and a bottom wall and an electrical receptacle positioned between the top wall and the bottom wall such that the electrical receptacle floats within the cage in opposite directions between the top wall and the bottom wall.

An electro-mechanical connection apparatus. The apparatus includes a connection base configured to mechanically support an external device, and a first connection device operably connected to the connection base, wherein the first connection device is configured to operably connect with a second connection device associated with the external device. The first connection device includes a first electrical contact configured to establish an electrical connection with a second electrical contact of the external device, wherein the first electrical contact establishes the electrical connection with the second electrical contact while the connection base mechanically supports the external device.