Abstract: In one embodiment, the present invention provides a method for dynamically determining a power mode with which to operate an add-on component within a host processing system; and operating the add-on component in the power mode.

Abstract: A method for a mechanism for processor power state aware distribution of lowest priority interrupts. The method of one embodiment comprises receiving first power state information from a first component and second power state information from a second component. First task priority information from the first component and second task priority from the second component are also received. An interrupt request from a first device for servicing is received. Power state and task priority information for the first and second components are evaluated to determine which component should service the interrupt request. Either the first component or the second component is selected to be a destination component to service the interrupt request based on the power state and task priority information. The interrupt request is communicated to the destination component.

Abstract: Systems and methods of dynamic memory for power reduction are described with respect to a memory with a coupled sleep device. In one embodiment, the operating requirements can reflect amount of memory required to perform commensurate operations. Memory power management logic is used to coordinate memory requirements with operating requirements. The sleep device is able to enable or disable the memory based on the requirements to reduce power consumption.

Abstract: Embodiments of the present invention provide an apparatus, system, and method of generating an execution instruction. Some demonstrative embodiments my include generating an execution instruction of a predetermined executable format based on memory address data of a memory-access instruction representing a memory address. Other embodiments are described and claimed.

Abstract: A distributed power management system for a bus architecture or similar communications network. The system supports multiple low power states and defines entry and exit procedures for maximizing energy savings and communication speed.

Abstract: A distributed power management system for a bus architecture or similar communications network. The system supports multiple low power states and defines entry and exit procedures for maximizing energy savings and communication speed.

Abstract: A distributed power management system for a bus architecture or similar communications network. The system supports multiple low power states and defines entry and exit procedures for maximizing energy savings and communication speed.

Abstract: Systems and methods of managing power provide for placing a processor in a non-snoopable state, where the processor is associated with a system memory. One or more data transfers between a controller and the system memory can be serviced while the processor is in the non-snoopable state. In one embodiment, it is determined that the processor has flushed an internal cache of the processor to the system memory before placing the processor in the non-snoopable state.

Abstract: In one embodiment, there is provided a method comprising determining a target operating point for an electronic device, the target operating point including a target operating frequency and a target operating voltage; and dynamically changing a current operating point for the electronic device including a current operating frequency and a current operating voltage by non-contemporaneously changing the current operating frequency to the target operating frequency and a current operating voltage to the target operating voltage, wherein during the changing the electronic device is in an active state.

Abstract: An apparatus to determine if a temperature of an electronic device is equal to or exceeds a predetermined threshold. In response to detecting the temperature of the electronic device has at least reached the predetermined threshold, determining a target throttling point for a processor, the target throttling point including a target operating frequency and target operating voltage. Thereafter, dynamically changing a current operating point for the electronic device including a current operating frequency and a current operating voltage by non-contemporaneously changing the current operating frequency to the target operating frequency and the current operating voltage to the target operating voltage. During the changing of the current operating voltage the device is in an active state.

Abstract: Systems and methods of managing operating points provide for determining the number of active cores in a plurality of processor cores. A maximum operating point is selected for at least one of the active cores based on the number of active cores. In one embodiment, the number of active cores is determined by monitoring an ACPI processor power state signal of each of the plurality of cores.

Abstract: System, apparatus, method and article to manage power for a mobile device are described. The apparatus may include a power management module to save an operating context for a processor to at least one memory unit, and reduce power to the processor below a context retention point. Other embodiments are described and claimed.

Abstract: In one embodiment, there is provided a method comprising determining a target operating point for an electronic device, the target operating point including a target operating frequency and a target operating voltage; and dynamically changing a current operating point for the electronic device including a current operating frequency and a current operating voltage by non-contemporaneously changing the current operating frequency to the target operating frequency and a current operating voltage to the target operating voltage, wherein during the changing the electronic device is in an active state.

Abstract: Systems and methods of managing processors provide for detecting a command at a core of a processor having a plurality of cores, where the command requests a transition of the core to an idle state. Power consumption of the core is managed based on the command and an idle state status of each of the plurality of cores.

Abstract: An integrated circuit device, such as a processor initiates a transition to a first power management state. The device then receives a request to exit the first power management state and, in response exits the first power management state at the highest of a reference operating voltage, such as a minimum operating voltage, and a current voltage. For one aspect, an analog to digital converter may be used to determine the current voltage level. Further, for one aspect the first power management state may be a deeper sleep (C4) state, and the processor may quickly exit to a C2 state in response to a bus event such as a bus snoop.

Abstract: Systems and methods of managing power provide for issuing a first operating requirement from a first processor core and issuing a second operating requirement from a second processor core. In one embodiment, the operating requirements can reflect either a power policy or a performance policy, depending upon the factor that is currently most important to software. Hardware coordination logic is used to coordinate a shared resource setting with the operating requirements. The hardware coordination logic is also able to coordinate the shared resource setting with independent resource settings of the first and second processor cores based on the operating requirements.

Abstract: Systems and methods of managing power provide for applying a voltage from a voltage regulator to a component of a computing system and reducing the voltage based on a power saving parameter that is dedicated to the component. The reduction can be in conjunction with the entry of the component into a low power state such as a standby state or an off state, where the power saving parameter defines a voltage such as a minimum operating voltage or minimum sustainable voltage for the component, respectively. In one embodiment, the component is a central processing unit.

Abstract: A mechanism for P-state feedback to operating system (OS) with hardware coordination is described herein. In one embodiment, an example of a process includes, but is not limited to, receiving data from a processor representing an average performance over a pervious period of time, and determining a performance state (P-state) for a next period of time based in part on the data representing the average performance over the previous period of time. Other methods and apparatuses are also described.

Abstract: A circuit includes a switch unit, an non-protected register and a set of protected control registers. The set of protected control registers stores safe data for use by another unit of the circuit. The switch unit outputs the data stored by one of the set of protected control registers as a function of the data stored by the non-protected register. The data in the non-protected register can be changed by software in response to user input, operational mode or other condition or conditions.

Abstract: In one embodiment, the present invention provides a method for dynamically determining a power mode with which to operate an add-on component within a host processing system; and operating the add-on component in the power mode.