Abstract: A receptacle includes a cooling channel that is positioned between a top port and a bottom port. A transfer member is positioned in the cooling channel and is configured to direct heat from an inserted plug module into the cooling channel Air flowing through the cooling channel acts to remove thermal energy from the receptacle. A connector system may include a plug module that can be inserted into such a receptacle and the plug module can include grooves to help allow for direct cooling of the plug module, even when inserted into the receptacle.

Abstract: A connector system includes a cage with an intermediate section. The cage support a connector and the resulting connector system includes an upper port and a lower port. A heat sink is provided in the intermediate section that is configured to cool a module inserted into the lower port. Apertures can allow air to flow through the connector system so as to allow for improved cooling by more directly cooling the inserted module. The heat sink can be urged into the lower port by a biasing element.

Abstract: A receptacle includes a cooling channel that is positioned between a top port and a bottom port. A transfer member is positioned in the cooling channel and is configured to direct heat from an inserted plug module into the cooling channel Air flowing through the cooling channel acts to remove thermal energy from the receptacle. A connector system may include a plug module that can be inserted into such a receptacle and the plug module can include grooves to help allow for direct cooling of the plug module, even when inserted into the receptacle.

Abstract: A receptacle includes a cooling channel that is positioned between a top port and a bottom port. A transfer member is positioned in the cooling channel and is configured to direct heat from an inserted plug module into the cooling channel. Air flowing through the cooling channel acts to remove thermal energy from the receptacle. A connector system may include a plug module that can be inserted into such a receptacle and the plug module can include grooves to help allow for direct cooling of the plug module, even when inserted into the receptacle.

Abstract: A connector system includes a cage with an intermediate section. The cage support a connector and the resulting connector system includes an upper port and a lower port. A heat sink is provided in the intermediate section that is configured to cool a module inserted into the lower port. Apertures can allow air to flow through the connector system so as to allow for improved cooling by more directly cooling the inserted module. The heat sink can be urged into the lower port by a biasing element.

Abstract: A connector system includes a cage with an intermediate section. The cage support a connector and the resulting connector system includes an upper port and a lower port. A heat sink is provided in the intermediate section that is configured to cool a module inserted into the lower port. Apertures can allow air to flow through the connector system so as to allow for improved cooling by more directly cooling the inserted module. The heat sink can be urged into the lower port by a biasing element.

Abstract: A socket includes a housing that supports terminal bricks that can contain one or more terminals. The terminal bricks are inserted into apertures in the housing. The location of the terminal bricks can be adjusted separate from a side of the housing, thus providing the potential to improve coplanarity of the terminals in the socket.

Abstract: A receptacle includes a cooling channel that is positioned between a top port and a bottom port. A transfer member is positioned in the cooling channel and is configured to direct heat from an inserted plug module into the cooling channel. Air flowing through the cooling channel acts to remove thermal energy from the receptacle. A connector system may include a plug module that can be inserted into such a receptacle and the plug module can include grooves to help allow for direct cooling of the plug module, even when inserted into the receptacle.

Abstract: A connector system includes a cage with an intermediate section. The cage support a connector and the resulting connector system includes an upper port and a lower port. A heat sink is provided in the intermediate section that is configured to cool a module inserted into the lower port. Apertures can allow air to flow through the connector system so as to allow for improved cooling by more directly cooling the inserted module. The heat sink can be urged into the lower port by a biasing element.

Abstract: A connector system includes a plurality of housing mounted on a circuit board and a plurality of cages are provided, each cage enclosing one of the housings, each of the cages including a front face that defines a first port, the cages being spaced apart a predetermined distance. A thermal washer is positioned around the cages, the thermal washer including a front portion and a main portion with air apertures that allow air to flow through the thermal washer and along a gap between the cages.

Abstract: A connector includes a housing positioned in a cage. A vertical wall is positioned around the housing and is soldered to a printed circuit board that is supporting the connector. The vertical wall includes a plurality of fingers that are configured to engage the cage. The fingers are positioned at intervals such that the distance between the fingers acts to control the frequencies of EMI that emit from the connector.

Abstract: A connector system includes a plurality of housing mounted on a circuit board and a plurality of cages are provided, each cage enclosing one of the housings, each of the cages including a front face that defines a first port, the cages being spaced apart a predetermined distance. A thermal washer is positioned around the cages, the thermal washer including a front portion and a main portion with air apertures that allow air to flow through the thermal washer and along a gap between the cages.

Abstract: A connector includes a multi-port shield configured to reduce EMI. A housing is positioned inside the shield and includes one or more projections extending from a first face, the projections aligned with each port. A vertical wall is provided on the first face of the housing. Apertures in the vertical wall are aligned with the projections. The vertical wall helps reduce the amount of EMI generated by the connector.

Abstract: A socket includes a housing that supports terminal bricks that can contain one or more terminals. The terminal bricks are inserted into apertures in the housing. The location of the terminal bricks can be adjusted separate from a side of the housing, thus providing the potential to improve coplanarity of the terminals in the socket.

Abstract: A connector includes a housing positioned in a cage. A vertical wall is positioned around the housing and is soldered to a printed circuit board that is supporting the connector. The vertical wall includes a plurality of fingers that are configured to engage the cage. The fingers are positioned at intervals such that the distance between the fingers acts to control the frequencies of EMI that emit from the connector.

Abstract: A connector includes a multi-port shield configured to reduce EMI. A housing is positioned inside the shield and includes one or more projections extending from a first face, the projections aligned with each port. A vertical wall is provided on the first face of the housing. Apertures in the vertical wall are aligned with the projections. The vertical wall helps reduce the amount of EMI generated by the connector.

Abstract: A connector is capable of mating with a backplane. The connector includes a housing having at least a first portion and a second portion. The first portion of the housing transmits a first transmission to the backplane and the second portion of the housing transmits a second transmission through the backplane without transmitting the second transmission to the backplane.

Abstract: An electrical connector is adapted for mounting on a surface of a printed circuit board. The connector includes a dielectric housing mounting electrical terminals, with the housing being adapted for mounting on the surface of the board and the terminals establishing electrical connection to appropriate circuit means on the board. A hold-down clip is mounted on the housing and includes a leg portion projecting through a hole in the board with a hooked latch for engaging an opposite side of the board to secure the connector to the board. The hold-down clip is configured such that the leg portion is spring loaded to bias the hooked latch against the opposite side of the board and thereby accommodate printed circuit boards of varying thicknesses. A method of using such hold-down clip is also disclosed.

Abstract: A connector apparatus provides an interconnection between an IC pack and a printed circuit board. The apparatus includes a header connector for mounting on the printed circuit board and into which the IC pack is inserted and from which it is ejected. A plurality of terminals on the header connector are adapted for interconnection of the IC pack to electrical traces on the printed circuit board. An electrical switch is provided on the header connector and is actuated in response to movement of the IC pack therewithin. The switch is interconnected to electrical traces on the printed circuit board.

Abstract: An electrical connector is provided for surface mounting on a printed circuit board. The connector includes an elongated dielectric housing, and mounting clips are provided for mounting the housing on one side of the circuit board at an edge thereof. A plurality of terminals are mounted in the housing, each terminal including a contact pin at one end and a surface mount tail at an opposite end. The contact pins of the terminals are oriented generally parallel to the circuit board and arranged in two rows longitudinally of the housing. The surface mount tails of the terminals are arranged in a common plane for surface engagement with appropriate circuit traces on the one side of the circuit board. The terminals are of identical constructions, with the terminals in one row thereof being oriented 180.degree. relative to the terminals in the other row thereof. Each locking clip includes retention tabs for retaining the locking clips on the housing.