Abstract:
A dual-sided embedded multi-die interconnect bridge provides power and source conduits from the bridge bottom at a silicon portion, in short paths to dice on a die side of an integrated-circuit package substrate. Signal traces are in a metallization on the silicon portion of the dual-sided EMIB. Power, ground and signal vias all emanate from the dual-sided embedded multi-die interconnect bridge, with power and ground entering the bridge from central regions of the silicon portion.
Abstract:
A port of a first integrated circuit is coupled to a first communication path. Configuration information is communicated between a connector coupled to a second device and a second integrated circuit through the port and the first communication path. The port is decoupled from the first communication path. The port is coupled to a second communication path. Data is communicated between the connector and the second integrated circuit through the port and the second communication path.
Abstract:
A chip assembly may include a package substrate that includes one or more pins. The chip assembly may also include one or more pads. The one or more pads may be electrically coupled to the one or more pins. In addition, the chip assembly may include a board that includes one or more board pads. Further, the chip assembly may include an anisotropic layer. The anisotropic layer may be positioned between the board and the one or more pads and between the board and a portion of the package substrate. In addition, the anisotropic layer may mechanically couple the board to the one or more pads and to the portion of the package substrate. Further, the anisotropic layer may electrically couple the one or more pads to the one or more board pads.
Abstract:
According to various examples, a device is described. The device may include a package substrate. The device may also include a plurality of semiconductor devices disposed on the package substrate, wherein the plurality of semiconductor devices comprises top surfaces and bottom surfaces. The device may also include a plurality of interconnects coupled to the package substrate, wherein the plurality of interconnects are adjacent to the plurality of semiconductor devices. The device may also include a flyover bridge coupled to the top surfaces of the plurality of semiconductor devices and the plurality of interconnects, wherein the flyover bridge is directly coupled to the package substrate by the plurality of interconnects, and wherein the bottom surfaces of the plurality of semiconductor devices are electrically isolated from the package substrate.
Abstract:
A port of a first integrated circuit is coupled to a first communication path. Configuration information is communicated between a connector coupled to a second device and a second integrated circuit through the port and the first communication path. The port is decoupled from the first communication path. The port is coupled to a second communication path. Data is communicated between the connector and the second integrated circuit through the port and the second communication path.
Abstract:
Methods, systems, and apparatuses for a foldable fabric-based semiconductor package (FFP) that can assist with charging a secondary cell are described. An FFP includes: a ground plane; a first component over the ground plane; a second component adjacent to the ground plane; a third component adjacent to the second component; a molding compound encapsulating the ground plane, the first component, the second component, and the third component; a first fabric layer on a top side of the molding compound; and a second fabric layer on a bottom side of the molding compound. Each of the first, second, and third components includes one or more semiconductor dies. The third component is electrically coupled to each of the first and second components. The first and second components can wireless charge the secondary cell. The third component can power the first and second components. The ground plane can protect against electromagnetic signals.