Abstract: A dynamic power management technique to optimize the performance to a pre-defined power or temperature limit. A computing system may comprise a performance management unit that may reconfigure the performance parameters, dynamically, based on the pre-defined power or temperature limit. Such an approach may provide performance enhancements as the power consumed by various components of the computing system may be reduced.

Abstract: A dynamic power management technique to optimize the performance to a pre-defined power or temperature limit. A computing system may comprise a performance management unit that may reconfigure the performance parameters, dynamically, based on the pre-defined power or temperature limit. Such an approach may provide performance enhancements as the power consumed by various components of the computing system may be reduced.

Abstract: A method and system may provide power consumption reduction by a network device. A device on a network and its components each may capable of operating in a low-power state and a high power state. The device may include a host to run an application and a network controller to interface with the network. The network controller may include a host interface logic to interface with host, a micro-engine or other logic to process network maintenance data packets, and a filter to classify data packets. The filter may classify a received data packet having an associated data type and an associated destination by data type and destination. The data packet may be sent to the micro-engine if the data type and destination of the packet may be processed by the micro-engine.

Abstract: Includes receiving, from a link partner, a message specifying a link partner receive wake time and resolving to the lesser of the received link partner receive wake time and a local transmit wake time.

Abstract: A method and system may provide power consumption reduction by a network device. A device on a network and its components each may capable of operating in a low-power state and a high power state. The device may include a host to run an application and a network controller to interface with the network. The network controller may include a host interface logic to interface with host, a micro-engine or other logic to process network maintenance data packets, and a filter to classify data packets. The filter may classify a received data packet having an associated data type and an associated destination by data type by data type and destination. The data packet may be sent to the micro-engine if the data type and destination of the packet may be processed by the micro-engine.

Abstract: A dynamic power management technique to optimize the performance to a pre-defined power or temperature limit. A computing system may comprise a performance management unit that may reconfigure the performance parameters, dynamically, based on the pre-defined power or temperature limit. Such an approach may provide performance enhancements as the power consumed by various components of the computing system may be reduced.

Abstract: In some embodiments, a discharge protection circuit having an operational mode and a protection mode is provided.

Abstract: A method to reduce the rate of interrupts by the central processing unit (CPU) without any loss of interrupts. The method uses two parameters. The first parameter sets the event threshold, which is the maximum value of consecutive events allowed to occur, for example, the maximum number of received data packets before an interrupt is posted (for example, a receive interrupt) to the CPU. The second parameter sets the event time-out, which is the maximum time an event can be pending before posting an interrupt to the CPU. The second parameter is needed since the flow of events in the system is unpredictable and without the time-out limit handling of the event can be delayed indefinitely.

Abstract: An arbiter of an I/O controller implements an arbitration process for controlling bi-directional data flow between a local area network and a main memory connected to a system bus having variable latency. A receive state machine of the controller manages inbound data bursts from the network by temporarily storing the data in a receive buffer before transfer to the main memory. Outbound data bursts from the main memory are managed by a transmit state machine of the controller, and are temporarily stored in a transmit buffer prior to transmission onto the network. The arbitration process assigns each of the receive and transmit state machines priority for accessing the system bus depending upon certain status conditions of the controller.