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3032 results about "System failure" patented technology

A system failure can occur because of a hardware failure or a severe software issue, causing the system to freeze, reboot, or stop functioning altogether. A system failure may or may not result in an error being displayed on the screen.

User configurable raid system with multiple data bus segments and removable electrical bridges

A user configurable RAID system designed to provide RAID functions as well as mass storage functions in a non-RAID mode. Flexibility is built into the system to allow the user to configure the SCSI bus to which removable drive modules are connected into one or more channels to define some of the drive modules in a RAID set and others as stand-alone drives which are independently operated or logically grouped and operated in a non-RAID mode. Removable internal SCSI bridges allow the SCSI bus to be configured into one or more channels. In the RAID mode, the system is configured to prevent a wrong drive from being removed from the system in the event of a drive failure. The system automatically unlatches only the failed drive. The RAID system includes an intelligent control unit ("ICU"), a RAID controller and a modem. The ICU allows the system administrator to access the RAID system Monitor Utility so that the status of the system may be monitored and its configuration changed. The ICU also monitors the failure status of the various components of the system. The ICU has a built-in pager feature that can be configured with the Monitor Utility to page the system administrator via the modem when a component or system failure is encountered. The RAID controller controls the functions of the RAID set as programmed and configured using the Monitor Utility. The Monitor Utility may be remotely accessed using a computer via the modem. Redundant removable power supply and fan units are provided to improve system integrity. The removable power supply and fan units are configured such when the unit is plugged into the system housing, the fan is first turned on and the power through the unit is allowed to stabilize before turning on the power supply to begin providing DC power to the components in the system. A set of manual release buttons are provided for manually unlatching the drive modules from the system housing. A locking mechanism is provided for simultaneously locking all the manual release buttons.
Owner:MICRONET TECH

Method, system, and program for recovery from a failure in an asynchronous data copying system

InactiveUS20050071708A1Application downtime is minimizedMemory loss protectionUnauthorized memory use protectionRecovery methodDevice form
A method of recovery from a data storage system failure in a data storage system having a host computer writing data updates to a local storage controller at a local site. The local controller is associated with a local storage device. The local storage controller is also configured to asynchronously copy the updates to a remote storage controller associated with a remote storage device at a remote site. In addition, the remote storage controller is configured to store a consistent point in time copy of the updates on a backup storage device. The consistent point in time copy is known as a consistency group. Upon detection of a failure associated with the local site, a determination is made whether a group of updates pending for storage on the backup storage device form an intact consistency group. If an intact consistency group has not formed, corrective action may be taken to create an intact consistency group. The recovery method further consists of synchronizing the remote storage device, initiating recovery operations and, upon recovery of the local site, resynchronization of the local storage device and the backup storage device to recovery consistency group without the need for full volume storage copies and while minimizing application downtime.
Owner:IBM CORP

Method, system and article of manufacture for recovery from a failure in a cascading PPRC system

InactiveUS20050081091A1Application downtime is minimizedRedundant hardware error correctionData synchronizationControl store
A method of recovery from a data storage system failure in a data storage system having a host computer writing data to a first storage unit with a first storage controller synchronously mirroring the data to a second storage unit, and with a second storage controller asynchronously mirroring the data to a third storage unit. The method begins with the detection of a failure associated with the first storage unit. Upon detection of the error or failure associated with the first storage unit, the synchronous data mirroring relationship between the first storage unit and the second storage unit is terminated and the host is directed to write data updates directly to the second storage unit. Upon correction of the failure associated with the first storage unit, the asynchronous mirroring of data updates from the second storage unit to the third storage unit is suspended and synchronous mirroring of the data updates in a reverse direction, from the second storage unit to the first storage unit, is commenced. When a full duplex state is reached between the first storage unit and the second storage unit, the synchronous PPRC relationship with the first storage volume mirroring data to the second storage volume may be reestablished and host I/O writes to the first storage unit may be resumed.
Owner:IBM CORP

Multiple redundant computer system combining fault diagnostics and majority voting with dissimilar redundancy technology

A multiple redundant computer system includes three primary processor modules (PPM) and three redundant processor modules (RPM) operating synchronously. Primary and redundant processor modules are dissimilar in hardware and software for decreasing the probability of a common cause system failure. Each primary and redundant processor module receives input data from associated primary and redundant input modules respectively, executes control program and transfers output data to an output module. The output module produces a system output as the result of 2-out-of-3 voting among output data generated by PPMs. In response to PPMs hard failures, the output module still produces the system output as the result of 2-out-of-3 voting among output data generated by any combination of the PPM and the RPM. As such, the system is able to operate properly even though five-out-of six processor modules have failed. The output module also compares output data that it has received from each pair of the associated PPM and RPM for detecting a disparity between said output data due to the occurrence of transient faults. Additionally, the output module produces the system output as the result of 2-out-of-2 and 1-out-of-1 voting upon the occurrence of disparity of output data generated by the associated PPM and RPM in one and two pairs of the associated PPM and RPM respectively.
Owner:SUPERCON
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