Abstract: Embodiments of the disclosure provide a method, an apparatus, a device, and a storage medium for resource configuration. The method includes obtaining an indication for the number of nodes of a NUMA node of a processor socket; dividing acceleration resources of an accelerator into at least one acceleration resource queue based on the number of nodes; and by associating the at least one acceleration resource queue to a respective NUMA node included in the processor socket, causing a plurality of processor cores divided into the respective NUMA node to use the at least one acceleration resource queue based on the association. Thus, the availability of the accelerator may be improved.

Abstract: The present disclosure relates to a terminal firmware startup method and apparatus, an electronic device, and a storage medium. The startup method includes: replacing a target feature program in initial firmware with a target loader to obtain target firmware; loading hardware code in the target firmware that is used for initializing core hardware to complete hardware initialization, and generating a hardware initialization complete instruction; loading the target loader according to the hardware initialization complete instruction to complete platform initialization, and generating an operating system startup signal; and starting an operating system.

Abstract: The disclosure relates to a method, apparatus, computer-readable medium and electronic device for program loading. The method includes: loading the bin file at a program loading speed that is a first speed, adjusting the program loading speed to a second speed based on the configuration parameter in the bin file, the second speed being faster than the first speed, and then loading a FSBL at the program loading speed that is the second speed. By executing the configuration parameter in the bin file to adjust the speed of the Bootrom loading the FSBL from flash memory, the time for the Bootrom to load FSBL is shortened, and thus embedded systems are enabled to be compatible with various flash memories while also being applicable in occasions sensitive to startup time.

Abstract: Embodiments of the present disclosure provide an operating system startup method, apparatus and electronic device. A specific implementation of the method comprises: determining at least one target mirror server from a mirror server cluster based on a LinuxBoot on a diskless server, wherein a mirror file stored in a mirror server comprises a system kernel and a file system; downloading mirror file fragments from a target mirror server of the at least one target mirror server based on the LinuxBoot; assembling a plurality of downloaded mirror file fragments into a target mirror file; and booting an operating system of the diskless server based on a target system kernel and a target file system comprised in the target mirror file. Therefore, the efficiency and success rate of diskless boot-up of an operating system of the diskless server can be improved when booting the operating system based on the LinuxBoot.

Abstract: Embodiments of the present disclosure relate to a coprocessor, a host processor, a crash detection method and an electronic device. In this method, the coprocessor sends a handshake request to the host processor capable of running an operating system. The host processor performs an operation triggered by the handshake request. The host processor sends a positive response to the handshake request to the coprocessor if the operation is performed successfully; and the host processor sends, to the coprocessor, a negative response to the handshake request or no response if the operation is performed successfully. The coprocessor monitors a response to the handshake request from the host processor and determines a detection result of hardware crash associated with the operating system at least based on a monitoring result of this response.

Abstract: Method, systems and apparatuses may provide for technology that executes a margin test of a first memory storage based on a subset of first signals associated with the first memory storage. The technology determines, based on the margin test, first margin data to indicate whether the first memory storage complies with one or more electrical constraints. The technology determines, based on the first margin data, whether to execute a signal training process.

Abstract: Method, systems and apparatuses may provide for technology that executes a margin test of a first memory storage based on a subset of first signals associated with the first memory storage. The technology determines, based on the margin test, first margin data to indicate whether the first memory storage complies with one or more electrical constraints. The technology determines, based on the first margin data, whether to execute a signal training process.

Abstract: Systems, apparatuses and methods may provide for technology that handles failures in memory hardware (e.g., dynamic random access memory (DRAM)) via runtime post package repair. Such technology may include operations to perform a runtime post package repair in response to a memory hardware failure detected in the memory. In such an example, the runtime post package repair may be done after power up boot operations have been completed.