Abstract:
Method and apparatus for dynamic Node healing in a Multi-Node environment. A multi-node platform controller hub (MN-PCH) is configured to support multiple nodes through use of dedicated interfaces and components and shared capabilities. Interfaces and components may be configured to be used by respective nodes, or may be configured to support enhanced resiliency as redundant primary and spare interfaces and components. In response to detecting a failing or failing primary interface or component, the MN-PCH automatically performs failover operations to replace the primary with the spare. Moreover, the failover operation is transparent to the operating systems running on the platform's nodes.
Abstract:
Embodiments of the disclosure are directed to an apparatus that comprises a first core susceptible to an error condition, and a second core configured to perform a diagnostic on the first core to identify a cause of the error condition and an action to remedy the error condition in order to recover the first core.
Abstract:
A memory storage device and a repairing method thereof are provided. The memory storage device has a rewritable non-volatile memory module having multiple physical units. The physical units include at least one backup physical unit which is configured to be accessed only by a specific command set and stored with at least one customized data. The method includes receiving a specific read command from a host system for reading the backup physical unit and transmitting the customized data therein to the host system when the memory storage device is capable of receiving and processing commands from the host system, the specific read command belongs to the specific command set; and writing the customized data from the host system into a corresponding physical unit to restore the memory storage device to a factory setting when receiving the writing command from the host system for writing the customized data.
Abstract:
Methods and apparatus relating to repurposing a data lane as a clock lane by migrating to reduced speed link operation are described. In one embodiment, speed of a link is reduced upon detection of failure on a clock lane of the link and one of a plurality of data lanes of a link is repurposed as a replacement clock lane. Other embodiments are also disclosed and claimed.
Abstract:
Embodiments of the disclosure are directed to an apparatus that comprises a first core susceptible to an error condition, and a second core configured to perform a diagnostic on the first core to identify a cause of the error condition and an action to remedy the error condition in order to recover the first core.
Abstract:
A method for performing error recovery that includes creating, by a processor, a recovery checkpoint. The processor is dynamically switched into a non-recoverable processing mode of operation based on creating the software recovery checkpoint. The non-recoverable processing mode of operation is a mode in which a subset of hardware error recovery resources are powered-down or re-purposed for instruction processing. It is determined, during the non-recoverable processing mode of operation, that a new software recovery checkpoint is required. Based on the determining that a new software recovery checkpoint is required, the processor is dynamically switched into a recoverable processing mode of operation. The recoverable processing mode of operation is a mode in which hardware error recovery resources, including at least one of the hardware error recovery resources in the subset, are purposed for hardware error recovery operations.
Abstract:
The present disclosure describes a microprocessor executable installation supervisor operable to determine, for a selected computational component to be installed in the vehicle, whether the selected computational component satisfies a requirement and/or restriction associated with the selected computational component, when installed, and, when the selected computational component can satisfy the requirement and/or restriction, create a set of data structures in the selected computational component and/or a computer readable medium on board the vehicle to bind the selected computational component to the vehicle.
Abstract:
Even if a multiprocessor includes an uneven performance core, an inoperative core or a core that does not satisfy such a performance as designed but if the contrivance of task allocation can satisfy the requirement of an application to be executed, the multiple processors are shipped. In a task group allocation method for allocating, to a processor having a plurality of cores, task groups included in an application for the processor to execute, a calculation section measures performances and disposition patterns of the cores, generates a restricting condition associating the measured performances and disposition patterns of the cores with information indicating whether the application can be executed, and, with reference to the restricting condition, reallocates to the cores, the task groups that have previously been allocated to the cores.
Abstract:
An apparatus for handling a failed processor of a multiprocessor system including at least two processors interconnected by processor interconnects for facilitating transactions of the processors. The at least two processors include a first processor set as a default boot processor in response to a boot up operation of the multiprocessor computer, and a second processor. The apparatus includes: a baseboard management module for detecting and receiving health information of the processors; a multiplexer coupled to the baseboard management module and respectively to the processors, the multiplexer being operative to switch between the processors; and a processor ID controller coupled to the baseboard management module and respectively to the processors. In response to the health information indicating the first processor has failed, the processor ID controller sets the second processor as the default boot processor and the baseboard management module enables the multiplexer to switch to the second processor.
Abstract:
The exemplary embodiments provide a reconfigurable integrated circuit capable of on-chip configuration and reconfiguration, comprising: a plurality of configurable composite circuit elements; a configuration and control bus; a memory; and a sequential processor. Each composite circuit element comprises: a configurable circuit; and an element interface and control circuit, the element interface and control circuit comprising an element controller and at least one configuration and control register to store one or more configuration and control words. The configuration and control bus is coupled to the plurality of configurable composite circuit elements, and comprises a plurality of address and control lines and a plurality of data lines. The sequential processor can write configurations to the configuration and control registers of an addressed configurable composite circuit element to configure or reconfigure the configurable circuit.