Seagate Technology Incorporated

Chau Chin Low

Todd Michael Lammers

Andrew Robert Motzko

William Leon Rugg

Michael Richard Fabry

Anthony John Pronozuk

James Edward Dykes

Ted Randal McDonald

Shawn Jacob Noland

Terry Junge

Brian Lee Burski

Oscar Woo

Jonathan E Olson

Tiang Fee Yin

John Michael Groom

Matthew S Graeff

Choon An Aw

A connector includes a flexible connector having a first plurality of solder bumps arranged in a first pattern, and a base connector having a second plurality of solder bumps arranged in a second pattern concentric with and of a different size than the first pattern. A method of interconnecting a flexible connector to a base connector includes providing the flexible connector with a first plurality of solder bumps arranged in a first pattern, and providing the base connector with a second plurality of solder bumps arranged in a second pattern. The flexible and base connectors are aligned by aligning the first and second pluralities of solder bumps.

Flexible to base connector

Systems and methods for a flexible dynamic loop having reduced impedance are described. The flexible dynamic loop may supply current from a preamplifier to another device, such as a hard disk drive. In one embodiment, a flexible dynamic loop comprises a flexible structure having a set of wire traces. The flexible dynamic loop may also comprise a set of impedance control structures on the flexible structure and perpendicular to a bend radius of the flexible structure, wherein the set of impedance control structures change an impedance level experienced by at least some of the set of wire traces. Some of the impedance control structures may be staggered. The flexible dynamic loop may also include a cover layer formed over the set of impedance control structures, which may be patterned with perforations. The flexible dynamic loop may also include one or more flexible rails connecting some of the impedance control structures.

Flexible dynamic loop with back-side impedance control structures

Apparatus for retracting and extending sets of operational processing devices in a multi-device enclosure. In accordance with some embodiments, an enclosed housing is provided with opposing first and second ends. Sleds are individually movable between a retracted position within the enclosed housing and an extended position in which the sled projects from the first end. Each sled supports a group of processing devices. A control board is disposed within the enclosed housing adjacent the second end. A plurality of flex circuits contactingly engage the processing devices to provide communication paths between the processing devices and the control board in both the retracted and extended positions of the sleds.

Multi-device storage enclosure with extendable device support sleds

Packaged surface mount (SMT) chips having matched top contacts and bottom contacts are stacked. Chip features are selected to provide the desired connectivity between chip layers with a greater ease of manufacture. In one embodiment, additional spacing and routing layers are optionally provided between layers. In another, chips are differentiated by optionally providing different conductor and/or nonvolatile cell configurations. In yet another, a minority of a substrate's contacts are configured for aligning with a dielectric region of a spacing layer or substrate to create very low capacitance signal paths between stacked chips.

Surface mount IC stacking method and device

An assembly for high volume production of printed circuit cables consisting of: a plurality of printed circuit cables 10 cut from a polyimide base sheet 30 coated with a layer of copper and further coated with a photo-imaging material layer, wherein copper layer and photo-imaging material layer are photo-etched away at certain locations, a cover layer 34 applied on top of said printed circuit cables 10, cover layer 34 extending laterally from printed circuit cables 10, and forming tabs 16 at a plurality of locations, and a panel 20 having a plurality of apertures 15 cut therein, apertures 15 each dimensioned to receive a printed circuit cable 10 therein, and tabs 16 being connected to panel 20. A worknest 50 having certain areas 52 raised to different heights, worknest 50 adapted to be positioned under and provide support to the plurality of printed circuit cables 10. A cutting device 60 being adapted to cut tabs 16 thereby enabling printed circuit cables 10 to be removed from panel 20.

Panelized printed circuit cables for high volume printed circuit cable

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Fremont, CA, United States of America

Chau Chin Low