摘要:
Disclosed are embodiments for seamless, single-step, and speech-triggered transition of a host processor and/or computing device from a low functionality mode to a high functionality mode in which full vocabulary speech recognition can be accomplished. First audio samples are captured by a low power audio processor while the host processor is in a low functionality mode. The low power audio processor may identify a predetermined audio pattern. The low power audio processor, upon identifying the predetermined audio pattern, triggers the host processor to transition to a high functionality mode. An end portion of the first audio samples that follow an end-point of the predetermined audio pattern may be stored in system memory accessible by the host processor. Second audio samples are captured and stored with the end portion of the first audio samples. Once the host processor transitions to a high functionality mode, multi-channel full vocabulary speech recognition can be performed and functions can be executed based on detected speech interaction phrases.
摘要:
Embodiments include systems and methods for processing Reliability, Availability and Serviceability (RAS) events in a computer system. Embodiments comprise processing critical events in a first portion of a Management Interrupt (MI) period. The MI period is chosen to be not greater than a maximum tolerable Operating System (OS) latency period. If time remains in a current MI period after processing critical events, the system then processes non-critical events during the time remaining in the current MI period. If at the end of the current MI period, some non-critical events remain to be processed, a subsequent MI period is scheduled to process the remaining non-critical events.
摘要:
Embodiments include systems and methods for processing Reliability, Availability and Serviceability (RAS) events in a computer system. Embodiments comprise processing critical events in a first portion of a Management Interrupt (MI) period. The MI period is chosen to be not greater than a maximum tolerable Operating System (OS) latency period. If time remains in a current MI period after processing critical events, the system then processes non-critical events during the time remaining in the current MI period. If at the end of the current MI period, some non-critical events remain to be processed, a subsequent MI period is scheduled to process the remaining non-critical events.