Western Digital Technologies, Inc.

Oceanic Safety Systems LLC

Robert G Fairchild

Steven T Peng

Kevin Mikio Takeuchi

Sheri Gayle Daye

Wojciech Szeremeta

Brian S Nihei

Peter A Madnick

Zachary P Hills

Henry M (Chip) Bissell, Iv

Terry L Maas

Jason R Bush

Julian Liao

Jeffrey F Boigenzahn

David Sipperly

Vincent Yang

Kenneth J Samel

An electronic device includes an enclosure and an interior component. A flexible bar protects the interior component from mechanical shock. The flexible bar includes at least one component support portion configured to contact the interior component, and at least one enclosure support portion configured to contact the enclosure. According to one aspect, a first shape protrudes from a first surface of the flexible bar and is configured to receive force applied by the enclosure in a first dimension, and a second shape protrudes from a second surface of the flexible bar and is configured to receive force applied by the enclosure in a second dimension. According to another aspect, a first shape protrudes from a first surface of the flexible bar and is configured to receive force applied by the enclosure and elastically deform before a remaining portion of the flexible bar outside the first shape elastically deforms.

Mechanical shock protection for electronic device

An electronic device including electromechanical components, a cooling unit configured for heat removal for the electromechanical components, and a controller. The controller is configured to determine a system state of each of the electromechanical components based on temperature data for each of the electromechanical components and a temperature band corresponding to each of the electromechanical components, wherein the temperature data for each of the electromechanical components is sampled at a sample rate corresponding to each of the electromechanical components, determine a system state of the electronic device based on the system states of the electromechanical components, and control an operation of the cooling unit based on the system state of the electronic device.

Method and apparatus for cooling components in an electronic device

A storage device includes a data drive and an enclosure. Shock absorber mounting holes on the enclosure can receive shock absorbers to connect to the data drive. In this way the data drive can be suspended from the enclosure. The enclosure can also have one or more protrusion. The one or more protrusion can be located such that when the data drive is placed thereon and each shock absorber is placed within a respective shock absorber mounting hole, each shock absorber is aligned with a mounting hole on the data drive. This can allow securement of the respective shock absorber to the respective data drive mounting hole to suspend the data drive. When the data drive is assembled within the enclosure, the one or more protrusion is sized such that an impact on the one or more protrusion by the data drive will destroy the one or more protrusion.

Storage drive with collapsible support

A computer system including a heat sink including a peripheral portion and a middle portion, a circuit board, a first controller configured to be secured to the circuit board, one or more attachment devices configured to secure the heat sink to the circuit board at the peripheral portion of the heat sink, and a standoff component. The standoff component includes a first threaded section configured to secure the standoff component to the circuit board, and a second threaded section configured to secure the standoff component to the heat sink at the middle portion of the heat sink. The one or more attachment devices and the standoff component are configured to secure the heat sink to the circuit board and allow the heat sink to have thermal contact with the first controller.

Method and system for attachment of a heat sink to a circuit board

Systems and manufacturing methods are disclosed herein that can beneficially reduce manufacturing cost while providing size efficient enclosures to house hard drives or other types of storage drives. An enclosure system can be used for separately housing one of two storage devices having different thicknesses. A first portion can be interchangeable with both storage devices. Second and third portions can each have a thickness to size efficiently accommodate the thickness of one storage device. Each of the second and third portions has an engagement surface to engage the first portion forming an enclosure. Either the first portion, or both second and third portions can comprise an opening or a shock mounting element. When the opening or the shock mounting element are on both the second and third portions, the opening or the shock mounting element is collectively identically spaced from the engagement surface on both the second and third portions.

Manufacturing method for assembling storage drives

A method may comprise generating a first electronic model of a workpiece to be manufactured using an injection-molding process. The first electronic model may then be analyzed and the workpiece in the first electronic model may then be selectively distorted according to the analysis. A second electronic model of the distorted workpiece may then be generated. The workpiece may then be injection-molded within a mold generated using the second electronic model. Thereafter, the workpiece may be cooled such that the injection-molded workpiece gradually assumes the shape or substantially the shape of the workpiece in the first electronic model.

Injection molding part with 'zero draft' design and manufacturing methodologies

A deflection or snap fit type latch system can resist separation in at least three axes. The snap fit type latch system can include a first member and a second member that when engaged are configured to form a snap fit connection, at least one of the members comprising a deflecting arm. A tee feature on the first member can include a stem and a head. A slot on the second member can slidingly receive the stem of the tee feature as the first and second members engage such that the second member is sandwiched between the first member and the head of the tee feature. The snap fit connection can resist separation in a first axis and the combined tee feature and slot resist separation in two additional axes. The snap fit type latch system can be part of an enclosure, such as a storage device.

Latch system

Space efficient enclosures for different sized drives

An apparatus for use in the activity of freediving, providing the freediver with increased safety and protection in the event of Shallow Water Blackout, incapacitating hypoxia, or other emergency occurring in or under the water, while providing greater reliability of functioning, and comfort of wearing during the activity of freediving.

Growing community of inventors

Tustin, CA, United States of America

Robert G Fairchild