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    • 31. 发明申请
    • Transitioning a computing platform to a low power system state
    • 将计算平台转换为低功率系统状态
    • US20080082841A1
    • 2008-04-03
    • US11541222
    • 2006-09-29
    • Dale JuenemannPaul Diefenbaugh
    • Dale JuenemannPaul Diefenbaugh
    • G06F1/00
    • G06F1/3203
    • A method which includes initiating a power management policy based on a processing element for a computing platform entering a given power state. The power management policy includes a determination as to whether an input/output (I/O) controller and a memory controller for the computing platform are substantially quiescent. The computing platform may then be transitioned to a low power system state from a run power system state based on a determination that both the I/O controller and the memory controller are substantially quiescent and an indication that the computing platform is capable of entering the low power system state. According to this method, the low power system state includes entering one or more devices responsive to the computing platform in a power level adequate to retain a configuration state that enables the one or more devices to transition back to the run power system state in a manner that is substantially transparent to an operating system for the computing platform. Other implementations and examples are also described in this disclosure.
    • 一种方法,其包括基于进入给定功率状态的计算平台的处理元件发起功率管理策略。 电源管理策略包括关于计算平台的输入/输出(I / O)控制器和存储器控制器是否基本上是静止的确定。 然后,基于确定I / O控制器和存储器控制器基本上是静止的计算平台可以从运行电力系统状态转换到低功率系统状态,以及计算平台能够进入低电平的指示 电力系统状态。 根据该方法,低功率系统状态包括以足够的功率水平进入响应于计算平台的一个或多个设备,以使得能够以一种或多种设备以一种或多种方式转换回运行电力系统状态的配置状态 这对于计算平台的操作系统是基本上透明的。 在本公开中还描述了其他实现和示例。
    • 34. 发明授权
    • Transitioning a computing platform to a low power system state
    • 将计算平台转换为低功率系统状态
    • US07849334B2
    • 2010-12-07
    • US11541222
    • 2006-09-29
    • Dale JuenemannPaul Diefenbaugh
    • Dale JuenemannPaul Diefenbaugh
    • G06F1/26G06F1/32
    • G06F1/3203
    • A method which includes initiating a power management policy based on a processing element for a computing platform entering a given power state. The power management policy includes a determination as to whether an input/output (I/O) controller and a memory controller for the computing platform are substantially quiescent. The computing platform may then be transitioned to a low power system state from a run power system state based on a determination that both the I/O controller and the memory controller are substantially quiescent and an indication that the computing platform is capable of entering the low power system state. According to this method, the low power system state includes entering one or more devices responsive to the computing platform in a power level adequate to retain a configuration state that enables the one or more devices to transition back to the run power system state in a manner that is substantially transparent to an operating system for the computing platform. Other implementations and examples are also described in this disclosure.
    • 一种方法,其包括基于进入给定功率状态的计算平台的处理元件发起功率管理策略。 电源管理策略包括关于计算平台的输入/输出(I / O)控制器和存储器控制器是否基本上是静止的确定。 然后,基于确定I / O控制器和存储器控制器基本上是静止的计算平台可以从运行电力系统状态转换到低功率系统状态,以及计算平台能够进入低电平的指示 电力系统状态。 根据该方法,低功率系统状态包括以足够的功率水平进入响应于计算平台的一个或多个设备,以使得能够以一种或多种设备以一种或多种方式转换回运行电力系统状态的配置状态 这对于计算平台的操作系统是基本上透明的。 在本公开中还描述了其他实现和示例。
    • 39. 发明申请
    • Using fine-grained power management of physical system memory to improve system sleep
    • 使用物理系统内存的细粒度电源管理来改善系统睡眠
    • US20070006000A1
    • 2007-01-04
    • US11174375
    • 2005-06-30
    • Sandeep JainPaul DiefenbaughJames KardachRamkumar Vankatachary
    • Sandeep JainPaul DiefenbaughJames KardachRamkumar Vankatachary
    • G06F1/00
    • G06F1/3275G06F1/3228Y02D10/14
    • The methods for fine-grained power management of physical system memory allow portions of the system volatile memory to be independently power managed. The system volatile memory may be partitioned into a plurality of power management units (PMUs). Each PMU may have a pre-determined size or a variable size, which may be less than the size of a memory chip. Each PMU may be placed in a different memory state and independently power managed according to the memory state. At opportune times during the system active state, a fractional potion of the system volatile memory is shadowed into the system nonvolatile memory. Active data in the system volatile memory is rearranged prior to entering a power-saving mode and the PMUs containing the shadowed data may be powered off. Thus, power efficiency of the system volatile memory is improved.
    • 用于物理系统存储器的细粒度电源管理的方法允许系统易失性存储器的一部分被独立地进行功率管理。 系统易失性存储器可以被划分成多个电源管理单元(PMU)。 每个PMU可以具有预定尺寸或可变尺寸,其可以小于存储器芯片的尺寸。 每个PMU可以被放置在不同的存储器状态,并且根据存储器状态独立地进行功率管理。 在系统活动状态期间的适时时刻,系统易失性存储器的分数部分被遮蔽到系统非易失性存储器中。 在进入省电模式之前,系统易失性存储器中的有效数据被重新排列,并且包含阴影数据的PMU可能被关闭。 因此,提高了系统易失性存储器的功率效率。