Abstract: Described is an apparatus comprising a semiconductor interconnect substrate and an interface. The semiconductor interconnect substrate may be electrically coupled to one or more components mounted thereon. The interface may be operable to carry a configuration command set to the one or more components in a normal operation mode subsequent to a power-up mode.

Abstract: Described are methods and apparatuses pertaining to stacked integrated circuits having application in ultra-low-power and small form factor design, with fast prototyping and mass-production cycle time, including application for millimeter wave radio frequency circuits.

Abstract: Described is a method comprising a processing, an establishing, and/or a determining. In the processing, an inputted capabilities list including one or more hardware design capabilities may be processed. In the establishing, one or more candidate components for the one or more hardware design capabilities may be established. In the determining, a set of unique candidate netlists capable of satisfying the one or more hardware design capabilities may be determined, the set of unique candidate netlists being based upon the set of candidate components.

Abstract: Described herein are mechanisms and methods for blocking the propagation of signals to Integrated Circuit (IC) components that have been power gated, rather than simply suffering from leakage through signals that might not be parked in a low state. In some embodiments, switches that block the flow of current in such signals may enable turning off power to any IC component and not just to circuits on an IC component that make sole use of protocols that are friendly to power gating. This may advantageously increase power savings, by permitting more portions of a system in an idle state to be power gated, or by reducing or eliminating leakage in signals on boundaries of blocks being power gated, or both.

Abstract: Described herein are mechanisms and methods for blocking the propagation of signals to Integrated Circuit (IC) components that have been power gated, rather than simply suffering from leakage through signals that might not be parked in a low state. In some embodiments, switches that block the flow of current in such signals may enable turning off power to any IC component and not just to circuits on an IC component that make sole use of protocols that are friendly to power gating. This may advantageously increase power savings, by permitting more portions of a system in an idle state to be power gated, or by reducing or eliminating leakage in signals on boundaries of blocks being power gated, or both.

Abstract: Described is a packaged component having a first surface and an opposite second surface. The packaged component may comprise a first element a second element, and a third element. The first element may have a first surface and an opposite second surface. The second element may have a first surface and an opposite second surface. The third element may electrically connect a portion of the first element to a portion of the second element. The second surface of the first element may be adjacent to the second surface of the packaged component, and the second surface of the second element may be adjacent to the second surface of the packaged component.

Abstract: Described are concepts related to the field of programmable interconnect substrates used in packaging electronics, and to stacked integrated circuits produced for application in low power and small form factor designs with fast prototyping and short mass-production cycle times. The concepts facilitate the dynamic reconfiguration of routing resources in the presence of an active system, and the tuning of routing paths to meet power and performance metrics.

Abstract: Described is a packaged component having a first surface and an opposite second surface. The packaged component may comprise a first element a second element, and a third element. The first element may have a first surface and an opposite second surface. The second element may have a first surface and an opposite second surface. The third element may electrically connect a portion of the first element to a portion of the second element. The second surface of the first element may be adjacent to the second surface of the packaged component, and the second surface of the second element may be adjacent to the second surface of the packaged component.

Abstract: Described is a method comprising a processing, an establishing, and/or a determining. In the processing, an inputted capabilities list including one or more hardware design capabilities may be processed. In the establishing, one or more candidate components for the one or more hardware design capabilities may be established. In the determining, a set of unique candidate netlists capable of satisfying the one or more hardware design capabilities may be determined, the set of unique candidate netlists being based upon the set of candidate components.

Abstract: Described are concepts related to the field of programmable interconnect substrates used in packaging electronics, and to stacked integrated circuits produced for application in low power and small form factor designs with fast prototyping and short mass-production cycle times. The concepts facilitate the dynamic reconfiguration of routing resources in the presence of an active system, and the tuning of routing paths to meet power and performance metrics.

Abstract: Described is an apparatus for supporting Over-The-Air Hardware Updates comprising a first circuitry, a second circuitry, and a third circuitry. The first circuitry may be operable to be fastened and electrically coupled in one or more regions to one or more respectively corresponding semiconductor dies. The second circuitry may be operable to configure the one or more regions of the first circuitry. The third circuitry may be operable to provide a set of wirelessly-received configuration instructions to the second circuitry.

Abstract: Described are methods and apparatuses pertaining to stacked integrated circuits having application in ultra-low-power and small form factor design, with fast prototyping and mass-production cycle time, including application for millimeter wave radio frequency circuits.

Abstract: Described is a method comprising a processing, an establishing, and/or a determining. In the processing, an inputted capabilities list including one or more hardware design capabilities may be processed. In the establishing, one or more candidate components for the one or more hardware design capabilities may be established. In the determining, a set of unique candidate netlists capable of satisfying the one or more hardware design capabilities may be determined, the set of unique candidate netlists being based upon the set of candidate components.

Abstract: Described is an apparatus for supporting Over-The-Air Hardware Updates comprising a first circuitry, a second circuitry, and a third circuitry. The first circuitry may be operable to be fastened and electrically coupled in one or more regions to one or more respectively corresponding semiconductor dies. The second circuitry may be operable to configure the one or more regions of the first circuitry. The third circuitry may be operable to provide a set of wirelessly-received configuration instructions to the second circuitry.

Abstract: Described are methods and apparatuses pertaining to stacked integrated circuits having application in ultra-low-power and small form factor design, with fast prototyping and mass-production cycle time, including application for millimeter wave radio frequency circuits.