Dell Products Inc.

Frank Widjaja Yu

Kevin Warren Mundt

Haesung Kwon

Gregory M Allen

Timothy Michael Lambert

Chandrashekar Nelogal

Walter A O'Brien, Iii

Xiaoye Jiang

Michael Joseph Stumpf

Marcelo Silva Saraiva

Don H Walker

Anthony Gerard Ginty

Yung-Chin Fang

Jonathan Jay Kellen

Jingjuan Gong

Bang Kim Le

Russell Woodbury

A self-healing Hard Disk Drive (HDD) system includes a chassis housing an HDD device self-healing subsystem coupled to an HDD data storage system that includes a plurality of HDD data storage resources. The HDD device self-healing subsystem prevents data from being stored on a first HDD data storage resource that is included in the plurality of HDD data storage resources included in the HDD data storage system. When the HDD device self-healing subsystem determines that data storage operations using a second HDD data storage resource that is included in the plurality of HDD data storage resources will be subsequently unavailable, it remaps logical addresses associated with the second HDD data storage resource to the first HDD data storage resource, and provides the data that was stored using the second HDD data storage resource on the first HDD data storage resource.

Self-healing hard disk drive system

A storage device write-read error reduction system includes a computing device that includes a storage device. The storage device determines, at a temperature that is within a predefined temperature range, that a storage device background operation should be performed and, in response, identifies data that is stored in the storage device and that was written to the storage device outside the predefined temperature range. The storage device then prioritizes the data that was written to the storage device outside the predefined temperature range over data that was written to the storage device within the predefined temperature range and, based on that prioritization, performs the storage device background operation to rewrite the data to the storage device.

Storage device write-read error reduction system

A device including first firmware of a first type and second firmware of a second type different from the first type. The first firmware configures the device to be installed into a first information handling system associated with the first type. The second firmware configures the device to be installed into a second information handling system associated with the second type. The device is configured to receive a firmware commit command that command includes either a first indication to commit the first firmware, or a second indication to commit the second firmware, but not both indications. The device further determines that the firmware commit command includes the first indication and locks the device to use the first firmware and not the second firmware, and determines that the firmware commit command includes the second indication and locks the device to use the second firmware and not the first firmware.

System and method to provide a single device type in customized products

Systems and methods are provided for implementing one-time programmable features for storage devices. In some embodiments, an Information Handling System (IHS) may include: a processor; and a memory coupled to the processor, the memory having program instructions stored thereon that, upon execution, cause the IHS to: initialize a one-time programmable (OTP) security storage device; and transmit a command to the OTP security storage device, where the OTP security device is configured to be set in security or non-security mode in response to the command, and where the OTP security storage device is configured to deny or ignore any subsequent command to set the OTP security storage device in a security mode or a non-security mode.

One-time programmable features for storage devices

A performance-based workload/storage allocation system includes a workload/storage allocation device coupled via controller device(s) to storage devices that each include a respective storage device attribute structure having storage device attributes that identify performance capabilities of that storage device. The workload storage/allocation device identifies a first workload that requires storage resources, and retrieves first workload performance requirement(s) associated with the first workload. The workload storage/allocation device then retrieves the storage device attributes that identify the performance capabilities of each of the storage devices via the controller device(s) and from the respective storage device attribute structure included in each of the storage devices, and uses them to determine that at least one of the plurality of storage devices includes performance capabilities that satisfy the first workload performance requirement(s). The workload/storage allocation device then allocates the at least one of the plurality of storage devices for use with the first workload.

Performance-based workload/storage allocation system

The side profile of a hard drive assembly may be configured with one or more open areas to allow cooling air to pass side-to-side through a lateral flow channel provided by a cavity defined in the base portion of the hard drive assembly. Corresponding and complementary open areas may be also be defined in mating drive carrier assembly side components to allow passage of lateral side-to-side cooling air through the base portion flow channel of a hard drive assembled to the drive carrier assembly to form a mountable hard drive system that is installed into a storage enclosure. The at least partially aligned open flow areas of the assembled hard dive assembly and drive carrier assembly may cooperate to reduce air flow impedance across multiple rows of hard drive systems through a storage enclosure.

Disk drive carriers and mountable hard drive systems with improved air flow

The side profile of a hard drive assembly may be configured with one or more open areas to allow cooling air to pass side-to-side across the hard drive assembly through a lateral flow channel provided by a cavity defined in the base portion of the hard drive assembly.

Hard drive assemblies

In accordance with embodiments of the present disclosure, a method for power loss protection of one or more storage resources may include receiving information from each of the one or more storage resources regarding power loss protection capabilities of such storage resource. The method may also include based on the information, repurposing, for each power loss protection capable storage resource, a communications channel between a logic device and such power loss protection capable storage resource for transmission of a respective early power-off warning signal for such power loss protection capable storage resource. The method may further include in response to a power event of a power supply unit for providing electrical energy to the one or more storage resources, asserting for each power loss protection capable storage resource its respective early power-off warning signal.

Systems and methods for power loss protection of storage resources

A drive vibration prevention system includes a fan and a drive. The drive includes a vibration detection device and a vibration notification pin. A management engine is coupled to the drive and the fan. The management engine is operable to determine whether the vibration notification pin is being asserted in response to the vibration detection device detecting a vibration that exceeds a predetermined threshold. In response to determining that the vibration notification pin is being asserted, the management engine retrieves vibration data from the drive. The management engine then modifies a fan speed of the fan using the vibration data. Drives may be grouped into drive groups that output a single vibration notification signal to the management engine, and in response to the assertion of a vibration notification pin in the drive group, the management engine retrieves vibration data from each of the drives in that drive group.

Drive vibration prevention system

Hard disk drive assemblies with open side wall areas

Systems and methods are provided for throughput optimization of a hard disk drive (HDD) using position error signaling (PES) that includes determining a PES for a HDD mounted in a chassis based on a dynamic disturbance. The method also includes calculating a critical parameter of the PES. The method further includes indicating a mechanical design modification of the HDD or the chassis if the critical parameter of the PES exceeds a pre-defined threshold.

Method and system for hard disk drive throughput optimization using position error signaling

Systems and methods for out of band notification of a hard drive status change may be provided. In accordance with embodiments of the present disclosure, an information handling system may include a processor, a memory communicatively coupled to the processor, a hard disk drive communicatively coupled to the processor via an input/output (I/O) bus for communicating I/O data between the processor and the hard disk drive, and an indicator configured to provide a user-detectable indication of I/O activity occurring on the I/O bus. The hard disk drive may include general purpose input/output (GPIO) terminal independent from the I/O bus and communicatively coupled to the processor, and the hard disk drive may be configured to assert the GPIO terminal in response to an occurrence of a status event of the hard disk drive.

Systems and methods for out of band notification of hard drive status change

Out-of-order reconstruction of a RAID storage device at a replacement storage device enables the replacement storage device to execute I/O for reconstructed regions during reconstruction of the replacement storage device. In one embodiment, the failed storage device is analyzed to find recoverable information, which is copied to the replacement storage device to reduce the need for reconstruction. In another embodiment, the priority for region's reconstruction is increased upon detection of an I/O to the region. The I/O is queued until reconstruction of the region and then executed after reconstruction of that region so that I/O at the region need not be repeated during reconstruction of the remainder of the replacement storage device.

Growing community of inventors

Austin, TX, United States of America

Frank Widjaja Yu