Abstract: An information handling system include a memory and a processor that determines that the information handling system is of a first class of devices, receives a first profile from a management system, the first profile being for the first class of devices, receives a second profile from the management system, the second profile being for a second class of devices, the second class being different from the first class, couples to a peer device, determines whether the peer device is of the first class of device or the second class of devices, and sends the first profile to the peer device in response to determining that the peer device is of the first class of devices.

Abstract: A drive controller associated with a data storage medium may receive a command from a host to write a set of data to a storage space of the data storage medium. The drive controller may determine that insufficient space is available in a cache space of the data storage medium to write the set of data to the cache space and may dynamically convert an available portion of the storage space into a dynamic cache space associated with the cache space. The dynamic cache space may remain visible to the host as the available portion of the storage space. The drive controller may then write the set of data to the cache space and report to the host that the set of data is written to the storage space of the data storage medium.

Abstract: An information handling system includes a memory and a processor that couples to a first peer device, determines a first performance level for a performance parameter of the information handling system, receives a second performance level for the performance parameter of the first peer device, compares the first performance level with the second performance level, and determines that the first performance level is discrepant from the second performance level based upon the comparison.

Abstract: An information handling system including a first memory to store data as a system memory for operations of a first processor in the information handling system, a second memory to store data as a cache memory for input/output operations of a second processor, and an interrupt handler. The interrupt handler is configured to monitor an input/output bus to determine whether a number of the input/output operations is above a first threshold level, if the number of the input/output operations is above the threshold level, to re-allocate a portion of the first memory from the first processor to the second processor, to monitor the utilization of the first memory to determine whether a utilization level is above a second threshold level, and if the utilization level is above the second threshold level, to re-allocate a portion of the second memory from the second processor to the first processor.

Abstract: A performance optimization system includes a plurality of system components. A monitoring plug-in and a configuration plug-in are coupled to each of the plurality of system components. A monitoring engine receives monitoring information for each of the plurality of system components from their respective monitoring plug-in. A configuration engine sends configuration setting information to each of the plurality of system components through their respective configuration plug-ins. A performance optimization engine receives the monitoring information from the monitoring engine, determines a policy associated with the monitoring information and, in response, retrieves configuration setting information that is associated with the policy and sends the configuration setting information to the configuration engine in order to change the configuration of at least one of the plurality of system components.

Abstract: An information handling system includes a memory and a processor that couples to a first peer device, determines a first performance level for a performance parameter of the information handling system, receives a second performance level for the performance parameter of the first peer device, compares the first performance level with the second performance level, and determines that the first performance level is discrepant from the second performance level based upon the comparison.

Abstract: A method includes defining, in a first device, an ecosystem of devices, wherein the first device is of a first class of devices, and wherein the ecosystem comprises the first class of devices and a second class of devices, peering with a second device, determining that the second device is of the second class of devices, providing a custom profile associated with the ecosystem from the first device to the second device in response to determining that the second device is of the second class of devices, and modifying the second device from a first behavior to a second behavior based upon the custom profile.

Abstract: An information handling system include a memory and a processor that determines that the information handling system is of a first class of devices, receives a first profile from a management system, the first profile being for the first class of devices, receives a second profile from the management system, the second profile being for a second class of devices, the second class being different from the first class, couples to a peer device, determines whether the peer device is of the first class of device or the second class of devices, and sends the first profile to the peer device in response to determining that the peer device is of the first class of devices.

Abstract: An information handling system including a first memory to store data as a system memory for operations of a first processor in the information handling system, a second memory to store data as a cache memory for input/output operations of a second processor, and an interrupt handler. The interrupt handler is configured to monitor an input/output bus to determine whether a number of the input/output operations is above a first threshold level, if the number of the input/output operations is above the threshold level, to re-allocate a portion of the first memory from the first processor to the second processor, to monitor the utilization of the first memory to determine whether a utilization level is above a second threshold level, and if the utilization level is above the second threshold level, to re-allocate a portion of the second memory from the second processor to the first processor.

Abstract: A drive controller associated with a data storage medium may receive a command from a host to write a set of data to a storage space of the data storage medium. The drive controller may determine that insufficient space is available in a cache space of the data storage medium to write the set of data to the cache space and may dynamically convert an available portion of the storage space into a dynamic cache space associated with the cache space. The dynamic cache space may remain visible to the host as the available portion of the storage space. The drive controller may then write the set of data to the cache space and report to the host that the set of data is written to the storage space of the data storage medium.

Abstract: A performance optimization system includes a plurality of system components. A monitoring plug-in and a configuration plug-in are coupled to each of the plurality of system components. A monitoring engine receives monitoring information for each of the plurality of system components from their respective monitoring plug-in. A configuration engine sends configuration setting information to each of the plurality of system components through their respective configuration plug-ins. A performance optimization engine receives the monitoring information from the monitoring engine, determines a policy associated with the monitoring information and, in response, retrieves configuration setting information that is associated with the policy and sends the configuration setting information to the configuration engine in order to change the configuration of at least one of the plurality of system components.

Abstract: A performance optimization system includes a plurality of system components. A monitoring plug-in and a configuration plug-in are coupled to each of the plurality of system components. A monitoring engine receives monitoring information for each of the plurality of system components from their respective monitoring plug-in. A configuration engine sends configuration setting information to each of the plurality of system components through their respective configuration plug-ins. A performance optimization engine receives the monitoring information from the monitoring engine, determines a policy associated with the monitoring information and, in response, retrieves configuration setting information that is associated with the policy and sends the configuration setting information to the configuration engine in order to change the configuration of at least one of the plurality of system components.

Abstract: A low power write journaling storage system may be part of an information handling system that includes a system processor and a system memory that is coupled to the system processor. The low power write journaling storage system is coupled to the system processor and includes a non-volatile solid state memory system. A first processing element in the low power write journaling storage system is operable, while the storage system is in a storage system first mode, to journal write commands in the non-volatile solid state memory system. A second processing element in the low power write journaling storage system is operable, while the storage system is in a storage system second mode that may cause the low power write journaling storage system to consume more power than when in the storage system first mode, to execute the write commands journaled in the non-volatile solid state memory system.

Abstract: A performance optimization system includes a plurality of system components. A monitoring plug-in and a configuration plug-in are coupled to each of the plurality of system components. A monitoring engine receives monitoring information for each of the plurality of system components from their respective monitoring plug-in. A configuration engine sends configuration setting information to each of the plurality of system components through their respective configuration plug-ins. A performance optimization engine receives the monitoring information from the monitoring engine, determines a policy associated with the monitoring information and, in response, retrieves configuration setting information that is associated with the policy and sends the configuration setting information to the configuration engine in order to change the configuration of at least one of the plurality of system components.

Abstract: A storage device, such as a hard disk drive or solid state drive, reduces energy consumption by entering a reduced power state after an inactivity time where the inactivity time is set based upon I/O commands received at the storage device. For example, where commands received at a storage device are characterized in a predetermined way in terms of read commands, such as a last received command as a read command or a ratio of read commands versus write commands, a first inactivity time is applied, while commands characterized in a predetermined way in terms of write commands have a second inactivity time applied. Using a greater inactivity time during read activities than during write activities provides improved performance with reduced power consumption.

Abstract: A storage device, such as a hard disk drive or solid state drive, reduces energy consumption by entering a reduced power state after an inactivity time where the inactivity time is set based upon I/O commands received at the storage device. For example, where commands received at a storage device are characterized in a predetermined way in terms of read commands, such as a last received command as a read command or a ratio of read commands versus write commands, a first inactivity time is applied, while commands characterized in a predetermined way in terms of write commands have a second inactivity time applied. Using a greater inactivity time during read activities than during write activities provides improved performance with reduced power consumption.

Abstract: A storage controller, such as a RAID controller arbitrates storage tasks between a hard disk drive and a solid state drive based on predetermined factors, such as the type of information associated with a read or a write or the power available for running the storage devices. For example, a RAID controller on a portable information handling system performs writes and reads for sequential information with a hard disk drive. If power is limited, such as from a battery, the storage controller powers down the hard disk drive and performs storage tasks with the solid state drive with periodic power ups of the hard disk drive to mirror stored information.

Abstract: A system and method which provides a non-volatile memory management system with the ability to monitor the health of a corresponding non-volatile memory and to safeguard data stored within the non-volatile memory when data integrity is at risk. The monitoring and safeguarding is provided via a crisis reliability mode module which monitors the health of a corresponding non-volatile memory and to enters a crisis reliability mode of operation when data integrity within the non-volatile memory is at risk.

Abstract: Optical medium identification codes, such as the ATIP start codes used for CD-R optical media, are preassigned by optical medium manufacturer for association with planned optical media of the manufacturer. Optical disc drive manufacturers build optical disc drives having the preassigned optical medium identification codes in write strategy tables even though the optical disc drives are manufactured and sold before release and development of write strategies for the planned optical media. General write strategies associated with the preassigned optical medium identification codes provide more rapid write speeds for optical media having preassigned codes than for optical media having unknown identification codes by basing the preassigned write strategies on planned optical media design parameters, such as similarities with existing optical media of the manufacturer.