International Business Machines Corporation

Globalfoundries Inc.

Quantum Corporation

William Louis Brodsky

David Clifford Long

James A Busby

Michael T Peets

John G Torok

William Santiago-Fernandez

Silvio Dragone

Benson Chan

Michael J Fisher

John S Werner

John Richard Dangler

Arkadiy O Tsfasman

Robert K Mullady

Thomas Weiss

Byron S Green

Jeffrey A Newcomer

Phillip Duane Isaacs

Mark Kenneth Hoffmeyer

Michael A Gaynes

John J Loparco

Sanjeev Balwant Sathe

George G Zamora

David V Caletka

Robert R Genest

Edward N Cohen

Voya Rista Markovich

Stefano Sergio Oggioni

James Mitchell Karp

Bruce John Chamberlin

Eric James McKeever

Wiren Dale Becker

Alex Chliwnyj

James Robert Wilcox

John Henry Sherman

David Michael Davis

William P Kostenko

Glenn Edward Myrto

Robin A Susko

Glenn L Kehley

Noah B Singer

John Lee Colbert

David James Alcoe

Roger Scott Krabbenhoft

Thomas G Macek

James D Herard

Jeffrey Allen Zitz

Matteo Cocchini

Michael Cracraft

Scott Alan Shurson

Yuet-Ying Yu

Mark Garrison Clark

Paul William Coteus

Mark Delorman Schultz

Gareth Geoffrey Hougham

Arvind Kumar Sinha

Brian Samuel Beaman

David Brian Stone

Donald Seton Farquhar

David L Questad

Thomas Mario Cipolla

Natalie Barbara Feilchenfeld

Mark David Plucinski

Dennis R Barringer

Janak G Patel

Samuel R Connor

Shawn Canfield

Lisa Jeanine Jimarez

Roger Duane Hamilton

Randall Joseph Stutzman

Peter Slota, Jr

Lannie R Bolde

Ryan Elsasser

Timothy W Budell

Arthur J Higby

David Charles Olson

George Henry Thiel

Amanda Elisa Ennis Mikhail

Levi A Campbell

Evan G Colgan

John M Lauffer

David John Russell

David L Edwards

Sushumna Iruvanti

Edward Joseph Seminaro

Anilkumar Chinuprasad Bhatt

Charles Hampton Perry

Douglas Oliver Powell

Donald P Seraphim

Peter Jeffrey Brofman

Thomas J Fleischman

Michael F McAllister

Suraush Q Khambati

Donald W Henderson

Ho-Yiu Lam

Kevin Robert Covi

Robert B Schlak

Timothy P Younger

Jennifer V Muncy

Kevin Taylor Knadle

James R Stack

An electronic assembly is provided. The electronic assembly may include an electronic module mounted to a laminate, a cooling apparatus directly above the module, a single thermal interface material positioned between and directly contacting the module and the cooling apparatus, and a rotating cover rotatably attached to a top frame secured to the laminate, wherein the rotating cover includes an open position and a closed position.

Rotating lid for module cooler

An electronic module assembly is provided. The electronic module assembly may include one or more processors mounted to a laminate, a top frame mounted to the laminate and surrounding the one or more processors, and a removable lid covering the one or more processors. The removable lid includes latches arranged along a perimeter of the removable lid, the latches engage with a lip of the top frame and secure the removable lid to the module assembly, and the removable lid can only be removed from the module assembly by releasing all of the latches.

Temporary removable module lid

Tamper-respondent assemblies are provided which include an enclosure mounted to a circuit board and enclosing one or more components to be protected within a secure volume. A tamper-respondent sensor covers, at least in part, an inner surface of the enclosure, and includes at least one tamper-detect circuit. A monitor circuit is disposed within the secure volume to monitor the tamper-detect circuit(s) for a tamper event. A pressure connector assembly is also disposed within the secure volume, between the tamper-respondent sensor and the circuit board. The pressure connector assembly includes a conductive pressure connector electrically connecting, at least in part, the monitor circuit and the tamper-detect circuit(s) of the tamper-respondent assembly, and a spring-biasing mechanism to facilitate breaking electrical connection of the conductive pressure connector to the tamper-detect circuit(s) with a tamper event.

Tamper-respondent assemblies with pressure connector assemblies

A cable assembly is used to connect elements of a computing system. The cable assembly may include a first cable and a connector. The first cable includes an external portion having a first conductor, an electromagnetic (EMC) shielding jacket for the first conductor and a connector disposed at an end of the first conductor. Further, the first cable includes an internal portion comprising a second conductor and a connector disposed on an end of the second conductor. However, the internal portion lacks an EMC shielding jacket for the second conductor. The external portion of the first cable and the internal portion of the first cable form a continuous cable. The connector device comprises a shield area configured to electrically couple with a chassis of a node of a computer system and a retainer configured to physically couple the cable assembly with the chassis. The connector is configured to electrically couple the external portion of the first cable with the chassis, and wherein the external portion of the first cable meets the internal portion of the first cable at the connector device.

Hybrid cable assembly

A device is used to monitor, in real-time, one or more environment conditions of an environment in which a user is located. Based on the monitoring, an alert condition relating to the environment is detected. Based on detecting the alert condition, on-demand testing of a sensory component of the user is initiated. The on-demand testing tests for a selected condition relating to the health of the user.

On-demand testing for selected conditions

Tamper-respondent assemblies and fabrication methods are provided which utilize liquid crystal polymer layers in solid form. The tamper-respondent assemblies include a circuit board, and an enclosure assembly mounted to the circuit board to enclose one or more electronic components coupled to the circuit board within a secure volume. The assembly includes a tamper-respondent sensor that is a three-dimensional multilayer sensor structure, which includes multiple liquid crystal polymer layers, and at least one tamper-detect circuit. The at least one tamper-detect circuit includes one or more circuit lines in a tamper-detect pattern disposed on at least one liquid crystal polymer layer of the multiple liquid crystal polymer layers. Further, a monitor circuit is provided disposed within the secure volume to monitor the at least one tamper-detect circuit of the tamper-respondent sensor for a tamper event.

Tamper-respondent sensors with liquid crystal polymer layers

Acoustic attenuating ear muffs is provided with a first ear pod including a first ear cup having an inner surface and an outer surface, and a first acoustic attenuating member including a first opening coupled to the first ear cup. A second ear pod includes a second ear cup having an inner surface portion and an outer surface portion, and a second acoustic attenuating member including a second opening coupled to the second ear cup. A connecting member links the first ear pod to the second ear pod. A first selectively deployable plug member is arranged between the inner surface and the first acoustic attenuating member. A second selectively deployable plug member is arranged between the inner surface portion and the second acoustic attenuating member.

Acoustic attenuating ear muffs with mechanically actuated attenuation plugs

The present invention relates to a method to fabricate a tamper respondent assembly. The tamper respondent assembly includes an electronic component and an enclosure fully enclosing the electronic component. The method includes printing, by a 3-dimensional printer, a printed circuit board that forms a bottom part of the enclosure and includes a first set of embedded detection lines for detecting tampering events and signal lines for transferring signals between the electronic component and an external device. The electronic component is assembled on the printed circuit board, and a cover part of the enclosure is printed on the printed circuit board. The cover part includes a second set of embedded detection lines. Sensing circuitry can be provided for sensing the conductance of the first set of embedded detection lines and the second set of embedded detection lines to detect tampering events.

Enclosure with tamper respondent sensor

Hybrid cable assembly having shielded and unshielded portions

Multi-directional monitoring of connector motion is provided to facilitate identifying potential wear of one or more connector electrodes. A sensor assembly is configured to sense in multiple directions motion of a plug connector relative to a connector receptacle when the plug connector is operatively plugged to the connector receptacle, and to generate sensor data based on sensed motion of the plug connector relative to the connector receptacle. A control system is provided to monitor, based on the sensor data, motion of the plug connector relative to the connector receptacle to facilitate identifying potential wear of one or more electrodes of the plug electrode(s) and the receptacle electrode(s) due to the motion.

Multi-directional motion monitoring of plugged electrical connector

Acoustic attenuating ear muffs include a first ear pod having a first ear cup provide with a first acoustic attenuating member including an outer surface, and a first opening. A second ear pod includes a second ear cup having a second acoustic attenuating member including an outer surface portion, and a second opening. A first selectively deployable plug member is mounted to the outer surface of the first acoustic attenuating member. A second selectively deployable plug member mounted to the outer surface of the second acoustic attenuating member. An acoustic sensor is operable to detect ambient noise. An actuator system is operable to shift the first and second selectively deployable plug members into corresponding ones of the first and second openings based on ambient noise detected by the acoustic sensor.

Electronic attenuation adjusting hearing protection device

A connector system that includes first and second connector components. The first connector component includes a female connector. The second connector component includes a male connector having blades for insertion into the female connector; an enclosure enclosing the male connector and having an open end wherein the blades of the male connector face the open end; a locked shield within the open end of the enclosure to obscure the blades and to prevent contact with the blades; and an actuator to unlock the locked shield. Upon insertion of the first connector component into the enclosure, the first connector component causes the actuator to unlock the locked shield and upon further insertion of the first connector component into the enclosure, the first connector component opens the unlocked shield away from the male connector to expose the blades and to allow the female connector to engage the blades of the male connector.

Double touch-safe connector system

Tamper-respondent assemblies, electronic assembly packages, and methods of fabrication are provided which include multiple, discrete tamper-respondent sensors that overlap, at least in part, and facilitate defining a secure volume about one or more electronic components to be protected, such as an electronic assembly. The tamper-respondent sensors include a first tamper-respondent sensor and a second tamper-respondent sensor, which may be similarly constructed or differently constructed. In certain embodiments, the tamper-respondent sensors wrap, at least in part, over an electronic enclosure, and in other embodiments, the tamper-respondent sensors cover, at least in part, an inner surface of an electronic enclosure to facilitate defining a secure volume in association with a multilayer circuit board to which the electronic enclosure is mounted.

Overlapping, discrete tamper-respondent sensors

Methods of fabricating tamper-respondent assemblies with bond protection are provided which include at least one tamper-respondent sensor having unexposed circuit lines forming, at least in part, one or more tamper-detect network(s), and the tamper-respondent sensor having at least one external bond region. The tamper-respondent assembly further includes at least one conductive trace and an adhesive. The conductive trace(s) forms, at least in part, the one or more tamper-detect network(s), and is exposed, at least in part, on the tamper-respondent sensor(s) within the external bond region(s). The adhesive contacts the conductive trace(s) within the external bond region(s) of the tamper-respondent sensor(s), and the adhesive, in part, facilitates securing the at least one tamper-respondent sensor within the tamper-respondent assembly. In enhanced embodiments, the conductive trace(s) is a chemically compromisable conductor susceptible to damage during a chemical attack on the adhesive within the external bond region(s).

Tamper-respondent assemblies with bond protection

A gasket assembly structure including a frame which includes a front half and a back half joined together with a plurality of interlocking tabs located around a perimeter of the frame, defining a window, and an electromagnetic gasket, constrained between the front half and the back half of the frame; where the electromagnetic gasket lines an interior perimeter of the window and partially extends from the frame into the window, and a passageway through the window of the frame with boarders defined by the constrained electromagnetic gasket. A housing structure including a receptacle recessed within an opening on a front side of the housing, the receptacle is rigidly attached to the housing, and a gasket assembly recessed within the opening and located between the front side of the housing and the receptacle, where the gasket assembly is directly secured to the housing.

Electromagnetic gaskets for a cable connection

Growing community of inventors

Binghamton, NY, United States of America

William Louis Brodsky