Abstract: The present arrangements relate to analyzing a software error. At least one dump file created in response to a crash of software executing on a processing system can be accessed. Based on the dump file, a base version of at least one software module that was loaded when the crash occurred can be identified. Based on the dump file, maintenance that has been applied to the at least one software module also can be identified. A report recommending new corrective maintenance to be applied to the at least one software module can be generated.

Abstract: A method for announcing impending critical events within a distributed storage environment is disclosed. In one embodiment, such a method analyzes, at a storage system, status of various storage system components to predict an impending critical event to occur at the storage system. Predicting the critical event may include calculating an amount of time before occurrence of the impending critical event. The method then communicates, from the storage system to a host system, over an in-band communication channel used to carry I/O traffic between the host system and the storage system, one or more of the impending critical event and the amount of time. This will ideally enable the host system to take mitigating actions before the critical event occurs. A corresponding system and computer program product are also disclosed.

Abstract: A transmitting computer for a vehicle is disclosed, and includes a command circuit, a monitor circuit, and a master circuit. The command circuit receives a real-time signal and executes a first set of instructions to analyze the real-time signal, and generates a plurality of command signals based on executing the first set of instructions. The monitor circuit receives the command signals and the real-time signal. The monitor circuit executes a second set of instructions to analyze the real-time signal and generates a plurality of replica signals based on executing the second set of instructions. The monitor circuit generates an initial reset command in response to determining an initial miscompare between one of the plurality of command signals and the plurality of replica signals. The master circuit is in communication with both the command circuit and the monitor circuit and receives an indication that the initial reset command is generated.

Abstract: A data storage system configured to perform a data rebuild operation via a reduced number of read requests includes a host and a redundant array of independent disks (RAID) device including a plurality of data storage devices. When the host receives data of a first region and data of a second region of a read-requested region of each of the data storage devices in response to a rebuild request, the host receives failed address list information of the second region. The first region is a normal region, and the second region is a faulty region. The host rebuilds the data of the second region based on the failed address list information.

Abstract: A peripheral device may implement alternative reporting of errors and other events detected at the peripheral device. A peripheral device may monitor the operations of the peripheral device for reporting events. Upon detecting a reporting event, a notification of the reporting event may be generated and sent to a remote data store. The remote data store may store the reporting event and evaluate the reporting event for a responsive action that may be performed. If a responsive action is determined, then the remote data store may direct the performance of the responsive action. The remote data store may provide access to stored reporting events for a peripheral device.

Abstract: A digital signage including a memory; a display; and a controller configured to display content on the display, capture a plurality of images of the displaced content, store the plurality of captured images in the memory, and display the stored images on the display in response to an error event signal.

Abstract: The present invention provides a vehicle control device with which, even when an abnormality is detected in a core in a multi-core processor, it is possible to reduce the time needed until the core in which the abnormality is detected restarts and re-executes application software. The present invention is characterized by being provided with: a diagnostic means for carrying out a diagnostic process when starting a processor core, the diagnostic process including hardware diagnosis performed by hardware and software diagnosis performed using software after the hardware diagnosis; and a diagnostic process information change processing means for changing the method for executing the diagnostic process when all of the processor cores are started and when one of the processor cores is restarted.

Abstract: Concepts and technologies disclosed herein are directed to virtual zones for Open Systems Interconnection (“OSI”) communication model layers 4-7 services in a cloud computing system. According to one aspect of the concepts and technologies disclosed herein, a cloud computing system can include a hardware resource and a virtual zone. The virtual zone can include a virtual network function (“VNF”) that is executable by the hardware resource. The VNF can support a service that operates within one of layers 4-7 of the OSI communication model. A computing system can detect new subscribers to the service within the virtual zone. The computing system also can determine that a capacity constraint exists within the virtual zone as a result of the new subscribers. The computing system also can home the new subscribers to the further virtual zone so that the further VNF can provide the service to the new subscribers.

Abstract: Techniques for detecting errors in a computing system are provided. In one technique, first member data that comprises first attribute values of a particular attribute is stored. Each attribute value in the first attribute values is associated with a different member of a first plurality of members. Second member data that comprises second attribute values of the particular attribute is stored. Each attribute value in the second attribute values is associated with a different member of a second plurality of members. For each attribute value of the first attribute values, a first number of instances of the attribute value in the first member data is determined, a second number of instances of the attribute value in the second member data is determined, and based on the first number and the second number, a determination of whether a notification indicating the particular attribute will be generated is made.

Abstract: A system in a telecommunications network includes a database including at least one metric, at least one module configured for analyzing the at least one metric, a graphical user interface configured for displaying the at least one module, and a processor configured for determining a root cause in the network.

Abstract: Techniques for handling memory errors are disclosed. Various memory units of an accelerated processing device (“APD”) include error units for detecting errors in data stored in the memory (e.g., using parity protection or error correcting code). Upon detecting an error considered to be an “initial uncorrectable error,” the error unit triggers transmission of an initial uncorrectable error interrupt (“IUE interrupt”) to a processor. This IUE interrupt includes information identifying the specific memory unit in which the error occurred (and possible other information about the error). A halt interrupt is generated and transmitted to the processor in response to the data having the error being consumed (i.e., used by an operation such as an instruction or command), which causes the APD to halt operations. If the data having the error is not consumed, then the halt interrupt is never generated (that the error occurred may remain logged, however).

Abstract: Systems and methods are provided for implementing an automated parallel deployment solution. Embodiments of the invention described herein prevent defects from being introduced in a production environment, or those that could be introduced in a production environment, by parallel log monitoring of existing and new state systems. One or more systems may be created in parallel to the production system to detect and fix defects. In embodiments of the invention, as existing defects are captured and resolved by the automatic defect resolution system and method, these defects will not impact production any further. Thus, the automatic defect resolution system drives out all production defects over a window of time, requiring less and less maintenance over time. Once a given detect is fixed, the corresponding change is applied to the production environment to avoid future similar defects.

Abstract: A checkpointing method in a network device fault tolerant system using virtual machines. In one embodiment, the network device has an input port, an output port, an active virtual machine and a standby virtual machine, a network application on the active virtual machine which manipulates data present on the input port and transmits the manipulated data from the output port; a checkpoint engine on the active virtual machine; and an interface agent, on the active virtual machine, having callable functions to move data from the input port to the output port. The method includes the steps of determining, by the checkpoint engine, that a checkpoint is required; requesting by the checkpoint engine that the interface agent quiescent itself; returning, by the interface agent to the network application, an indicator that no packets are available regardless of whether or not packets are arriving at the input port.

Abstract: Data is sent from a memory buffer device to a host device over a link. An error in the data is determined. A read response cancellation signal is sent to the host device to indicate the error to the host device, where the read response cancellation signal is to be sent subsequent to the data being sent from the memory buffer device to the host device.

Abstract: The present application provides a method for planning a recovery resource for resisting N-time faults and an optical transmission device, and the method includes: planning, on an optical transmission device according to preset network planning information, a recovery resource for resisting (N?1)-time faults for preset (N?1)-time faults, and the recovery resource for resisting (N?1)-time faults is an optimal recovery resource corresponding to each interrupted service during the preset (N?1)-time faults; and planning, by the optical transmission device according to the network planning information and the recovery resource for resisting (N?1)-time faults, a recovery resource for resisting N-time faults for preset N-time faults, where the recovery resource for resisting N-time faults is a network-wide optimal recovery resource corresponding to interrupted services during the N-time faults.

Abstract: Presented herein are methods, non-transitory computer readable media, and devices for selectively limiting the amount of data in a file system, which include: determining a reparity bit value for a write disk block range, wherein the reparity bit is configured to track a number of writes in progress to a stripe range; determining the reparity bit value; updating a threshold written disk block number as a highest disk block number of the reparity bit value; and initiating a RAID operation until it reaches the threshold written disk block number, wherein the threshold written disk block number comprises a maximum written disk block number representing the last disk block number written.

Abstract: A method includes determining an acceptable site failure number for storing a set of encoded data slices based on available sites and storage units within the available sites. The method further includes determining dispersed storage error encoding parameters based on the acceptable site failure number, wherein the parameters includes a decode threshold number and a total width number. The method further includes encoding, in accordance with the parameters, a data segment of data to produce the set of encoded data slices. The method further includes generating a slice mapping based on the acceptable site failure number, the available sites, and the storage units within the available storage units within the available sites. The method further includes sending, based on the slice mapping, the set of encoded data slices to at least some of the storage units within at least some of the available sites for storage therein.

Abstract: An information processing apparatus includes: a reception unit that receives a countermeasure applied to a job in a case where a failure occurs in the job executed according to a flow; an extraction unit that extracts another job in which a previous-stage process, which is a process that is performed before a process in which a failure occurs in the flow, is similar from a storage unit storing plural jobs in which failures occur; and a presentation unit that presents the job extracted by the extraction unit and a direction indicating whether or not the countermeasure is applied to the job such that the direction can be received.

Abstract: A computer-implemented method is provided that is performed in a computer having a processor and multiple co-processors. The method includes launching a same set of operations in each of an original co-processor and a redundant co-processor, from among the multiple co-processors, to obtain respective execution signatures from the original co-processor and the redundant co-processor. The method further includes detecting an error in an execution of the set of operations by the original co-processor, by comparing the respective execution signatures. The method also includes designating the execution of the set of operations by the original co-processor as error-free and committing a result of the execution, responsive to identifying a match between the respective execution signatures.

Abstract: The invention introduces a method for priority writes in an SSD (Solid State Disk) system, performed by a processing unit, including at least the following steps. After a priority write command instructing the processing unit to write first data whose length is less than a page length in a storage unit is received, a buffer controller is directed to store the first data from the next available sub-region of a buffer, which is associated with a priority write, in a first direction. After a non-priority write command instructing to write second data whose length is less than page length in the storage unit is received, the buffer controller is directed to store the second data from the next available sub-region of the buffer, which is associated with a non-priority write, in a second direction.