Abstract:
Eine Ausführungsform kann einen Zähler zum Liefern eines Zählwerts, eine mit dem Zähler verbundene Aktivierungslogik und eine mit der Aktivierungslogik verbundene Schaltung aufweisen, die ein- oder ausgeschaltet wird, wenn der Zählwert außerhalb einer Resonanzbandbreite für die ein- oder auszuschaltende Schaltung liegt. Eine Ausführungsform kann ein Verfahren zum Initialisieren eines Zählers, während die Schaltung im Standby-Betrieb ist, zum Ablesen des Zählers und zum Einschalten der Schaltung, wenn der Zähler keine Resonanzbandbreite anzeigt, umfassen. Eine Ausführungsform kann ein System mit einem Gerät mit einem Stromversorgungsnetz zum Abgeben von Strom, einer mit dem Gerät verbundenen Verbindung zum elektrischen Kommunizieren mit dem Gerät und einer mit der Verbindung verbundenen Steuerschaltung zum Einschränken des Ein- oder Ausschaltens der Verbindung bei einer Resonanzfrequenz des Stromversorgungsnetzes sein.
Abstract:
Embodiments of the invention are generally directed to systems, methods, and apparatuses for a clocking architecture using a bidirectional clock. In an embodiment, a chip includes a bidirectional clock port capable of being statically configured to receive or to transmit a reference clock. In one embodiment, the chip includes a first port to receive data and a second port, wherein the chip repeats at least a portion of the data that it receives on the first port to a transmitter at the second port. Other embodiments are described and claimed.
Abstract:
A method, apparatus, and system are disclosed. In one embodiment the method comprises inputting an early clock signal and a late clock signal to a memory device and generating an average clock signal for the memory device by averaging the early clock signal and the late clock signal.
Abstract:
An embodiment may comprise a counter to provide a count value, enable logic coupled with the counter, and circuitry coupled with the enable logic, the circuitry to be powered up or down if the counter value is outside of a resonance bandwidth for the circuitry to be powered up or down. An embodiment may comprise a method of initializing a counter while circuitry is placed in a standby mode, reading the counter, and powering up the circuitry if the counter does not indicate a resonance bandwidth. An embodiment may be a system comprising a device including a power delivery network to deliver power, a link coupled with the device, the link to electrically communicate with the device, and control circuitry coupled with the link, the control circuitry to limit the link from powering up or down at a resonant frequency of the power delivery network.
Abstract:
Embodiments of the invention are generally directed to systems, methods, and apparatuses for a clocking architecture using a bidirectional clock. In an embodiment, a chip includes a bidirectional clock port capable of being statically configured to receive or to transmit a reference clock. In one embodiment, the chip includes a first port to receive data and a second port, wherein the chip repeats at least a portion of the data that it receives on the first port to a transmitter at the second port. Other embodiments are described and claimed.
Abstract:
A method, apparatus, and system are disclosed. In one embodiment the method comprises inputting an early clock signal and a late clock signal to a memory device and generating an average clock signal for the memory device by averaging the early clock signal and the late clock signal.
Abstract:
An embodiment may comprise a counter to provide a count value, enable logic coupled with the counter, and circuitry coupled with the enable logic, the circuitry to be powered up or down if the counter value is outside of a resonance bandwidth for the circuitry to be powered up or down. An embodiment may comprise a method of initializing a counter while circuitry is placed in a standby mode, reading the counter, and powering up the circuitry if the counter does not indicate a resonance bandwidth. An embodiment may be a system comprising a device including a power delivery network to deliver power, a link coupled with the device, the link to electrically communicate with the device, and control circuitry coupled with the link, the control circuitry to limit the link from powering up or down at a resonant frequency of the power delivery network.
Abstract:
An embodiment may comprise a counter to provide a count value, enable logic coupled with the counter, and circuitry coupled with the enable logic, the circuitry to be powered up or down if the counter value is outside of a resonance bandwidth for the circuitry to be powered up or down. An embodiment may comprise a method of initializing a counter while circuitry is placed in a standby mode, reading the counter, and powering up the circuitry if the counter does not indicate a resonance bandwidth. An embodiment may be a system comprising a device including a power delivery network to deliver power, a link coupled with the device, the link to electrically communicate with the device, and control circuitry coupled with the link, the control circuitry to limit the link from powering up or down at a resonant frequency of the power delivery network.
Abstract:
A method, apparatus, and system are disclosed. In one embodiment the method comprises inputting an early clock signal and a late clock signal to a memory device and generating an average clock signal for the memory device by averaging the early clock signal and the late clock signal.
Abstract:
Vorrichtung, umfassend: eine von einem Memory Controller Hub (MCH) (200) ausgehende Taktsignalleiterbahn (202); und eine Speichervorrichtung (214, 218, 222), welche sich auf einem Speichermodul (204) befindet, wobei das Speichermodul (204) von dem MCH (200) getrennt ist, wobei die Speichervorrichtung (214, 218, 222) betriebsfähig ist, um: ein voreilendes Taktsignal (212) von der Taktsignalleiterbahn (202) und ein nacheilendes Taktsignal (228) von der Taktsignalleiterbahn zu empfangen; eine Taktsequenz des voreilenden Signals zu bestimmen, eine Taktsequenz des nacheilenden Signals zu bestimmen, und ein gemitteltes Taktsignal zu erzeugen, das eine Taktsequenz aufweist, die in der Mitte zwischen der Taktsequenz des voreilenden Signals und der Taktsequenz des nacheilenden Signals liegt; und einen auf dem Speichermodul (204) befindlichen Terminierungswiderstand (236) an dem Ende der Taktsignalleiterbahn (202), um das Taktsignal zu terminieren, nachdem die Speichervorrichtung (214, 218, 222) sowohl das voreilende als auch das nacheilende Taktsignal (212, 228) empfangen hat.