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    • 4. 发明申请
    • Directing interrupts to currently idle processors
    • 将中断定向到当前空闲的处理器
    • US20070088888A1
    • 2007-04-19
    • US11251334
    • 2005-10-15
    • Ryuji OritaSusumu AraiBrian AllisonPatrick Bland
    • Ryuji OritaSusumu AraiBrian AllisonPatrick Bland
    • G06F13/24
    • G06F13/24
    • Interrupts are directed to currently idle processors. Which of a number of processors of a computing system that are currently idle is determined. An interrupt is received and directed to one of the currently idle processors for processing. Determining which processors are currently idle can be accomplished by monitoring each processor to determine whether it has entered an idle state. When a processor has entered an idle state, it is thus determined that the processor is currently idle. Where just one processor is currently idle, an interrupt is directed to this processor. Where more than one processor is currently idle, one of these processors is selected to which to deliver an interrupt, such as in a round-robin manner. Where no processor is currently idle, then one of the processors is selected to which to deliver an interrupt.
    • 中断针对当前空闲的处理器。 确定当前空闲的计算系统的多个处理器中的哪一个。 接收到中断并将其定向到当前空闲处理器之一进行处理。 确定哪些处理器当前处于空闲状态可以通过监视每个处理器来确定它是否进入空闲状态。 当处理器进入空闲状态时,因此确定处理器当前处于空闲状态。 当一个处理器当前处于空闲状态时,一个中断就被指向这个处理器。 当多个处理器当前空闲时,选择这些处理器之一来传送中断,例如以循环方式。 在没有处理器当前空闲的情况下,选择一个处理器来传送中断。
    • 7. 发明授权
    • Directing interrupts to currently idle processors
    • 将中断定向到当前空闲的处理器
    • US07694055B2
    • 2010-04-06
    • US11251334
    • 2005-10-15
    • Ryuji OritaSusumu AraiBrian D. AllisonPatrick M. Bland
    • Ryuji OritaSusumu AraiBrian D. AllisonPatrick M. Bland
    • G06F13/24
    • G06F13/24
    • Interrupts are directed to currently idle processors. Which of a number of processors of a computing system that are currently idle is determined. An interrupt is received and directed to one of the currently idle processors for processing. Determining which processors are currently idle can be accomplished by monitoring each processor to determine whether it has entered an idle state. When a processor has entered an idle state, it is thus determined that the processor is currently idle. Where just one processor is currently idle, an interrupt is directed to this processor. Where more than one processor is currently idle, one of these processors is selected to which to deliver an interrupt, such as in a round-robin manner. Where no processor is currently idle, then one of the processors is selected to which to deliver an interrupt.
    • 中断针对当前空闲的处理器。 确定当前空闲的计算系统的多个处理器中的哪一个。 接收到中断并将其定向到当前空闲处理器之一进行处理。 确定哪些处理器当前处于空闲状态可以通过监视每个处理器来确定它是否进入空闲状态。 当处理器进入空闲状态时,因此确定处理器当前处于空闲状态。 当一个处理器当前处于空闲状态时,一个中断就被指向这个处理器。 当多个处理器当前空闲时,选择这些处理器之一来传送中断,例如以循环方式。 在没有处理器当前空闲的情况下,选择一个处理器来传送中断。
    • 9. 发明授权
    • Debugging module to load error decoding logic from firmware and to execute logic in response to an error
    • 调试模块从固件加载错误解码逻辑,并响应错误执行逻辑
    • US08504875B2
    • 2013-08-06
    • US12647828
    • 2009-12-28
    • Ryuji OritaBarry A. KrittCharles D. BaumanSumeet KocharJeremy K. HollandKaren A. Taylor
    • Ryuji OritaBarry A. KrittCharles D. BaumanSumeet KocharJeremy K. HollandKaren A. Taylor
    • G06F11/00
    • G06F11/0793
    • A computing device includes a processor, firmware, a hardware component, and a debugging module. The firmware stores error decoding logic particular to the computing device. The hardware component detects an error in the computing device, and responsively issues an interrupt and halts the processor such that the processor cannot execute any more computer-readable code. The debugging module loads the logic from the firmware at reset and executes the logic responsive to the interrupt. The debugging module does not use the processor to execute the logic, the firmware is not part of the debugging module, and the debugging module is not part of the hardware component. The firmware may also store a mapping between registers of the hardware component and field-replaceable hardware units of the computing device, which the debugging module loads at reset and uses when executing the error decoding logic to determine which unit has caused the error.
    • 计算设备包括处理器,固件,硬件组件和调试模块。 固件存储特定于计算设备的错误解码逻辑。 硬件组件检测计算设备中的错误,并且响应地发出中断并停止处理器,使得处理器不能执行任何更多的计算机可读代码。 调试模块在复位时从固件加载逻辑,并响应中断执行逻辑。 调试模块不使用处理器执行逻辑,固件不是调试模块的一部分,调试模块不是硬件组件的一部分。 固件还可以存储硬件组件的寄存器和计算设备的现场可替换硬件单元之间的映射,调试模块在执行错误解码逻辑以确定哪个单元已经引起错误时在复位时加载并使用。
    • 10. 发明申请
    • Persisting value relevant to debugging of computer system during reset of computer system
    • 计算机系统复位期间与计算机系统调试相关的持久价值
    • US20090113194A1
    • 2009-04-30
    • US11926083
    • 2007-10-28
    • Ryuji OritaMark A. BrandyberryMehul M. ShahSean P. Brogan
    • Ryuji OritaMark A. BrandyberryMehul M. ShahSean P. Brogan
    • G06F15/177
    • G06F11/1417G06F11/0787
    • The last value of an element of a computing system is continually stored within a first register. The element is cleared during any restart or reset of the computing system. The last value is relevant to debugging of the computing system when the computing system fails to perform as expected and/or as desired. Upon receiving an instruction to reset the computing system via a first reset signal corresponding to pressing of a reset button or a second reset signal corresponding to a baseboard management controller issuing a reset command, the last value of the element as stored within the first register is copied to a second register. The computing system is then reset. The last value of the element as stored within the second register persists within the second register during this type of reset, but is cleared during any other reset or restart of the computing system.
    • 计算系统的元素的最后一个值被连续地存储在第一寄存器中。 该元素在计算系统的任何重新启动或重置期间被清除。 最后一个值与计算系统在计算系统按预期和/或需要时无法执行的调试相关。 当接收到通过对应于复位按钮的按下的第一复位信号或对应于发出复位命令的基板管理控制器的第二复位信号来重置计算系统的指令时,存储在第一寄存器内的元件的最后值是 复制到第二个寄存器。 然后重新计算系统。 在这种类型的复位期间,存储在第二寄存器内的元素的最后一个值在第二个寄存器内仍然存在,但在计算系统的任何其他复位或重新启动期间都将被清除。