Abstract:
A package comprises a die stack having at least two stacked dies coupled for contactless communications with each other. At least one of the stacked dies has a substrate joined to its major face. The substrate has a plurality of conductive traces in or on the substrate for conducting power to the dies and for conducting heat from the dies. At least one conductive pillar is joined to at least one of the conductive traces on at least a first edge of the substrate, for conducting power to the at least one die and for conducting heat from the at least one die.
Abstract:
A package comprises a die stack having at least two stacked dies coupled for contactless communications with each other. At least one of the stacked dies has a substrate joined to its major face. The substrate has a plurality of conductive traces in or on the substrate for conducting power to the dies and for conducting heat from the dies. At least one conductive pillar is joined to at least one of the conductive traces on at least a first edge of the substrate, for conducting power to the at least one die and for conducting heat from the at least one die.
Abstract:
A circuit includes a first power supply node at a first power supply voltage; a gated-node; and a first control device coupled between the first power supply node and the gated-node. The first control device is configured to pass the first power supply voltage to the gated-node or to disconnect the gated-node from the first power supply voltage. A second control device is coupled between the first power supply node and the gated-node. The second control device is configured to pass a gated-voltage to the gated-node or disconnect the gated-node from the gated-voltage. A voltage-drop device is coupled between the first power supply node and the gated-node, wherein the voltage-drop device is serially connected with the second control device. A negative-feedback current source is connected in parallel with the voltage-drop device. The negative-feedback current source is configured to provide a current tracking a variation of the gated-voltage at the gated-node.
Abstract:
A circuit includes a first power supply node at a first power supply voltage; a gated-node; and a first control device coupled between the first power supply node and the gated-node. The first control device is configured to pass the first power supply voltage to the gated-node or to disconnect the gated-node from the first power supply voltage. A second control device is coupled between the first power supply node and the gated-node. The second control device is configured to pass a gated-voltage to the gated-node or disconnect the gated-node from the gated-voltage. A voltage-drop device is coupled between the first power supply node and the gated-node, wherein the voltage-drop device is serially connected with the second control device. A negative-feedback current source is connected in parallel with the voltage-drop device. The negative-feedback current source is configured to provide a current tracking a variation of the gated-voltage at the gated-node.
Abstract:
A communications structure comprises a first semiconductor substrate having a first coil, and a second semiconductor substrate having a second coil above the first semiconductor substrate. Inner edges of the first and second coils define a boundary of a volume that extends below the first coil and above the second coil. A ferromagnetic core is positioned at least partially within the boundary, such that a mutual inductance is provided between the first and second coils for wireless transmission of signals or power between the first and second coils.
Abstract:
Among other things, one or more techniques for conditional cell placement are provided herein. In an embodiment, a conditional boundary is created for a first cell. For example, the conditional boundary enables the first cell to be placed relative to a second cell based on a conditional placement rule. In an embodiment, the first cell is placed in a first manner relative to the second cell based in a first scenario. In a second scenario, different than the first scenario, the first cell is placed in a second manner relative to the second cell. In this manner, conditional cell placement is provided, thus providing flexibility and improved layout efficiency with regard to semiconductor fabrication, for example.
Abstract:
A pulse width timing includes a first complementary resistor-capacitor (RC) circuit having an input for receiving an input signal, and a second complementary RC circuit coupled to an output of the first complementary RC circuit, wherein the first and second complementary RC circuits cooperate to produce an output signal based on the input signal, the output signal being delayed and having an adjusted pulse width with respect to the input signal.
Abstract:
A communications structure comprises a first semiconductor substrate having a first coil, and a second semiconductor substrate having a second coil above the first semiconductor substrate. Inner edges of the first and second coils define a boundary of a volume that extends below the first coil and above the second coil. A ferromagnetic core is positioned at least partially within the boundary, such that a mutual inductance is provided between the first and second coils for wireless transmission of signals or power between the first and second coils.