Abstract: A connector holder includes a housing (configured to be secured within an aperture in a substrate), a first connector disposed within the housing and configured to provide a mating interface that extends above the support member and a cable that is connected to the connector and extends below the support member. The first connector is used to provide electrical connection with an associated electrical component and can provide for blind mating.

Abstract: A high-speed blind-mate board-to-board cable assembly includes a housing with cabling stored therein, configured to be positioned between two substrates. The housing comprises pin receptacle portions for receiving pins from one substrate. The assembly also includes a first socket and a second socket, each equipped with at least one spring plunger, allowing vertical movement to accommodate variable distances between the substrates. The housing also includes floats permitting horizontal movement of the pins. The sockets are configured to couple the cabling to the respective substrates. The assembly provides a high-performance cable connection between two stacked substrates (e.g., printed circuit boards), providing full mate assurance and minimizing risk of performance degradation.

Abstract: A cable harness for use in a backplane is provided. The cable harness includes a primary hybrid signal and power backplane connector having a primary housing. The primary housing includes a primary signal pair element and a primary power connector. The cable harness also includes a secondary hybrid signal and power backplane connector having a secondary housing. The secondary housing includes a secondary signal pair element and a secondary power connector. The primary hybrid signal and power backplane connector is connected with the secondary hybrid signal and power backplane connector with a signal cable. Each of the primary and secondary hybrid signal and power backplane connectors is electrically connected with a power supply unit each via a power cable.

Abstract: A cable harness for use in a backplane is provided. The cable harness includes a primary hybrid signal and power backplane connector having a primary housing. The primary housing includes a primary signal pair element and a primary power connector. The cable harness also includes a secondary hybrid signal and power backplane connector having a secondary housing. The secondary housing includes a secondary signal pair element and a secondary power connector. The primary hybrid signal and power backplane connector is connected with the secondary hybrid signal and power backplane connector with a signal cable. Each of the primary and secondary hybrid signal and power backplane connectors is electrically connected with a power supply unit each via a power cable.

Abstract: A cable harness for use in a backplane is provided. The cable harness includes a primary hybrid signal and power backplane connector having a primary housing. The primary housing includes a primary signal pair element and a primary power connector. The cable harness also includes a secondary hybrid signal and power backplane connector having a secondary housing. The secondary housing includes a secondary signal pair element and a secondary power connector. The primary hybrid signal and power backplane connector is connected with the secondary hybrid signal and power backplane connector with a signal cable. Each of the primary and secondary hybrid signal and power backplane connectors is electrically connected with a power supply unit each via a power cable.

Abstract: A connector holder includes a housing (configured to be secured within an aperture in a substrate), a first connector disposed within the housing and configured to provide a mating interface that extends above the support member and a cable that is connected to the connector and extends below the support member. The first connector is used to provide electrical connection with an associated electrical component and can provide for blind mating.

Abstract: A hinged busbar assembly includes a first mounting busbar configured to be electrically and mechanically connected to the first component at a fixed connection, a second mounting busbar configured to be electrically and mechanically connected to the second component at a fixed connection, and at least two extension busbars extending between the first and second mounting busbars. Adjacent extension busbars are electrically and mechanically connected to each other at a pivotal connection. One of the at least two extension busbars is electrically and mechanically connected to the first mounting busbar at a pivotal connection, and another one of the at least two extension busbars is electrically and mechanically connected to the second mounting busbar at a pivotal connection. Each pivotal connection includes at least one extension extending from each adjacent busbar and at least one electrical contact mounted in each extension, and a pin inserted through the electrical contacts.

Abstract: A card has a rear portion with contact pads provided therein and has an input/output (I/O) connector assembly mounted on a first side with the I/O connector assembly including a receptacle connector positioned in a cage. A heat sink assembly is mounted on the cage and is configured to extend into the cage so as to help cool an inserted plug module. If desired a second heat sink can be mounted on a second side of the card. The second heat sink can extend through an aperture in the card into a port defined by the I/O connector assembly so that a module inserted into the port can be cooled from two sides.

Abstract: A spine is configured to support and protect a cable harness. The spine includes a plurality of segments arranged along an axis. Each segment includes a first and second housing parts which can be closed to form a passageway or can be opened to expose cavities within each housing part. The housing parts are mated together at adjacent ends by couplings. The housing parts form at least one opening which accepts a cable of the cable harness. A lock is engaged to lock the housing parts in a closed position.

Abstract: A hinged busbar assembly includes a first mounting busbar configured to be electrically and mechanically connected to the first component at a fixed connection, a second mounting busbar configured to be electrically and mechanically connected to the second component at a fixed connection, and at least two extension busbars extending between the first and second mounting busbars. Adjacent extension busbars are electrically and mechanically connected to each other at a pivotal connection. One of the at least two extension busbars is electrically and mechanically connected to the first mounting busbar at a pivotal connection, and another one of the at least two extension busbars is electrically and mechanically connected to the second mounting busbar at a pivotal connection. Each pivotal connection includes at least one extension extending from each adjacent busbar and at least one electrical contact mounted in each extension, and a pin inserted through the electrical contacts.

Abstract: A spine is configured to support and protect a cable harness. The spine includes a plurality of segments arranged along an axis. Each segment includes a first and second housing parts which can be closed to form a passageway or can be opened to expose cavities within each housing part. The housing parts are mated together at adjacent ends by couplings. The housing parts form at least one opening which accepts a cable of the cable harness. A lock is engaged to lock the housing parts in a closed position.

Abstract: The disclosure provides reagents, methods, and kits, for treating melanoma. The reagent encompasses interferon-gamma (IFN-gamma) responsive melanoma cells, where the cells are autophagic and non-apoptotic melanoma cells, and where the cells express MHC Class II. In another aspect, the reagent encompassed dendritic cells loaded with the IFN-gamma responsive, non-apoptotic, MHC Class II-expressing melanoma cells.

Abstract: The disclosure provides reagents, methods, and kits, for treating or preventing cancers derived from each of the germ layers (endoderm, mesoderm, ectoderm, neural crest). The reagent encompasses interferon-gamma (IFN-gamma) responsive cancer cells, where the cells are autophagic and non-apoptotic cancer cells, and where the cells express MHC Class II.

Abstract: The disclosure provides reagents, methods, and kits, for treating melanoma. The reagent encompasses interferon-gamma (IFN-gamma) responsive melanoma cells, where the cells are autophagic and non-apoptotic melanoma cells, and where the cells express MHC Class if. In another aspect, the reagent encompassed dendritic cells loaded with the IFN-gamma responsive, non-apoptotic, MHC Class II-expressing melanoma cells.

Abstract: The disclosure provides reagents, methods, and kits, for treating melanoma. The reagent encompasses interferon-gamma (IFN-gamma) responsive melanoma cells, where the cells are autophagic and non-apoptotic melanoma cells, and where the cells express MHC. Class II. In another aspect, the reagent encompassed dendritic cells loaded with the IFN-gamma responsive, non-apoptotic, MHC Class II-expressing melanoma cells.