International Business Machines Corporation

Hitachi Global Storage Technologies Netherlands B.v.

Globalfoundries Inc.

International Business Corporation

Bucknell Chapman Webb

Mark Delorman Schultz

Timothy Joseph Chainer

Edward John Yarmchuk

Paul Stephen Andry

John Ulrich Knickerbocker

Philipp Herget

Bing Dang

Lubomyr Taras Romankiw

Naigang Wang

Jae-Woong Nah

Eugene John O'Sullivan

Evan G Colgan

Robert Fontana

Anthony Paul Praino

William Joseph Gallagher

John Peter Karidis

Steven Lorenz Wright

Eric Peter Lewandowski

Robert J Polastre

Adinath S Narasgond

Robert G Biskeborn

Leland Chang

Christopher Vincent Jahnes

Minhua Lu

Robert L Wisnieff

Qianwen Chen

Joana Sofia Branquinho Teresa Maria

Joana S B T Maria

Jeffrey P Gambino

Michael A Gaynes

Xiao Hu Liu

Katsuyuki Sakuma

Li-Wen Hung

Steven Erik Steen

Daniel Scott Vanslette

Cameron E Luce

Devendra K Sadana

Ping-Chuan Wang

Reinaldo Ariel Vega

Paul Alfred Lauro

Jeffrey Donald Gelorme

John Michael Cotte

Fuad Elias Doany

Thomas M Shaw

Stephen L Buchwalter

S Jay Chey

Xiaoyan Shao

Yang Liu

John C Collins

Cornelia Tsang Yang

George A Katopis

Matteo Flotta

Lavanya Turlapati

Kenneth F Latzko

Stelios G Tsapepas

Daniel C Edelstein

Timothy Dooling Sullivan

Jeng-Bang Yau

Edmund Juris Sprogis

Roy Rongqing Yu

Teodor Krassimirov Todorov

Ronald G Filippi

Pritish Ranjan Parida

Thomas J Brunschwiler

Erdem Kaltalioglu

Michael Jay Shapiro

Thomas Anthony Wassick

James L Speidell

Cornelia K Tsang

Leathen Shi

Gerard McVicker

Mario John Interrante

Martin O Sandberg

Kenneth Jay Stein

Jared Barney Hertzberg

Gregory M Fritz

Lijuan Zhang

Cornelia Kang-I Tsang

Dennis G Manzer

Bo Wen

Mark E Re

Rajeev Narayanan

Robert P Kuder, Ii

Eric J Zhang

Gary Lafontant

Oblesh Jinka

Michael A Russak

Jessica Anne Levy

Ozgur Ozsun

Mark Dolorman Schultz

Lubomyr T Romanikiw

A composition includes an electrode made of Lithium Manganese Oxyfluoride (LMOF). A single layer separator adheres to a surface of the electrode, is a dielectric that is conductive for Lithium ions but not electrons, and has top and bottom sides. A solid polymer electrolyte (SPE) saturates the electrode so that the LMOF is between 55 percent and 85 percent by mass of a composition of the LMOF electrode and the SPE is between 7.5 percent and 20 percent by mass of the composition of the LMOF electrode. The SPE saturates the separator so that the SPE resides both on the separator top and bottom sides so that the SPE residing on the separator top side contacts the surface. The LMOF exhibits X-Ray Diffraction spectrum peaks between twenty-two and twenty-four 2-theta degrees, between forty-eight and fifty 2-theta degrees, between fifty-four and fifty-six 2-theta degrees, and between fifty-six and fifty-eight 2-theta degrees.

3D textured composite silicon anode and fluorinated lithium compound electrochemical cell

Systems, computer-implemented methods and/or computer program products that facilitate wearable multiplatform sensing are provided. In one embodiment, a computer-implemented method comprises: measuring, by a system operatively coupled to a processor, wirelessly on a nail plate, physiological data of an entity; integrating and synchronizing, by the system, the physiological data with other physiological data from one or more devices to form integrated physiological data; and analyzing, by the system, the integrated physiological data to detect one or more disorders.

Wearable multiplatform sensor

Techniques regarding selectively tuning the operating frequency of superconducting Josephson junction resonators are provided. For example, one or more embodiments described herein can comprise a method that can include chemically altering a Josephson junction of a Josephson junction resonator via a plasma treatment. The method can also comprise selectively tuning an operating frequency of the Josephson junction resonator based on a property of the plasma treatment.

Selective chemical frequency modification of Josephson junction resonators

A method and apparatus for bonding a processor wafer with a microchannel wafer/glass manifold to form a bonded wafer structure are provided. A glass fixture is also provided for protecting C4 solder bumps on chips disposed on the processor wafer. When the glass fixture is positioned on the processor wafer, posts extending from the glass fixture contact corresponding regions on the processor wafer devoid of C4 solder bumps, so that the glass fixture protects the C4 solder bumps during wafer bonding. The method involves positioning the processor wafer/glass fixture and the microchannel wafer/glass manifold in a metal fixture having one or more alignment structures adapted to engage corresponding alignment elements formed in the processor wafer, glass fixture and/or glass manifold. The metal fixture secures the wafer components in place and, after melting solder pellets disposed between the processor wafer/glass fixture and microchannel wafer/glass manifold, a bonded wafer structure is formed.

Method and apparatus of processor wafer bonding for wafer-scale integrated supercomputer

An energy storage device sits within a trench with electrically insulated sides within a substrate. Within the trench there is an anode, an electrolyte disposed on the anode, and a cathode structure disposed on the electrolyte. Variations of an electrically conductive contact are disposed on and in electrical contact with the cathode structure. At least part of the conductive contact is disposed within the trench and the conductive contact partially seals the anode, electrolyte, and cathode structure within the trench. Conductive and/or non-conductive adhesives are used to complete the seal thereby enabling full working electrochemical devices where singulation of the devices from the substrate enables high control of device dimensionality and footprint.

Encapsulating in-situ energy storage device with electrode contact

A micro-battery is provided in which a metallic sealing layer is used to provide a hermetic seal between an anode side of the micro-battery and the cathode side of the micro-battery. In accordance with the present application, the metallic sealing layer is formed around a perimeter of each metallic anode structure located on the anode side and then the metallic sealing layer is bonded to a solderable metal layer of a wall structure present on the cathode side. The wall structure contains a cavity that exposes a metallic current collector structure, the cavity is filled with battery materials.

Simplified hermetic packaging of a micro-battery

Batteries include an anode structure, a cathode structure, and a conductive overcoat. The anode structure includes an anode substrate, an anode formed on the anode substrate, and an anode conductive liner that is in contact with the anode. The cathode structure includes a cathode substrate, a cathode formed on the cathode substrate, and a cathode conductive liner that is in contact with the cathode. The conductive overcoat is formed over the anode structure and the cathode structure to seal a cavity formed by the anode structure and the cathode structure. At least one of the anode substrate and the cathode substrate is pierced by through vias that are in contact with the respective anode conductive liner or cathode conductive liner.

Microbattery with through-silicon via electrodes

A method for forming a battery structure includes texturing an anode packaging material to form a first textured surface, depositing one or more metal layers including an anode metal on the first textured surface and forming a separator on the anode metal. It also includes texturing a cathode packaging material to form a second textured surface, depositing a cathode metal on the second textured surface, and forming an electrolyte binder paste on the cathode metal, which contacts the separator with any gap being filled with electrolyte.

Low-profile battery construct with engineered interfaces

An electronic package apparatus is formed from a semiconductor substrate having a cavity formed therein. The cavity has a top surface, a bottom surface and a sidewall surface, and a spacer extending from the bottom surface to the top surface. The spacer is formed from a dielectric material and has at least one lateral dimension less than 0.1 cm.

Effective medium semiconductor cavities for RF applications

Systems and/or techniques associated with a sandwich-parallel micro-battery are provided. In one example, a device comprises a first battery and a second battery. The first battery comprises a first surface and a second surface. The second surface is smaller than the first surface. The second battery comprises a third surface and a fourth surface. The fourth surface is smaller than the third surface. Furthermore, the fourth surface is mechanically coupled to the second surface of the first battery. The third surface of the second battery and the first surface of the first battery comprise a conductive contact that electrically couples the first battery and the second battery.

Sandwich-parallel micro-battery

Electromechanical substance delivery devices are provided which implement low-power electromechanical release mechanisms for controlled delivery of substances such as drugs and medication. For example, an electromechanical device includes a substrate having a cavity formed in a surface of the substrate, a membrane disposed on the surface of the substrate covering an opening of the cavity, and a seal disposed between the membrane and the surface of the substrate. The seal surrounds the opening of the cavity, and the seal and membrane are configured to enclose the cavity and retain a substance within the cavity. An electrode structure is configured to locally heat a portion of the membrane in response to a control voltage applied to the electrode structure, and create a stress that causes a rupture in the locally heated portion of the membrane to release the substance from within the cavity.

Microchip substance delivery devices

A digital biomedical device includes a substrate forming a reservoir, a membrane comprising a first layer and a second layer having a strain therebetween, the membrane sealing the reservoir, and a controller configured to activate the membrane and release at least a portion of the strain causing the membrane curl and open the reservoir.

Drug delivery device having a cavity sealed by a pressurized membrane

A digital biomedical device includes a substrate forming a cavity, a seal formed around the cavity, a lid coupled to the substrate by the seal, a reactive metal structure comprising a plurality of metal layers, wherein the reactive metal structure is a component of at least one of the substrate and the lid, a metal trace configured to initiate a self-propagating reaction between the plurality of metal layers of the reactive metal structure and release contents of the cavity, and a power supply configured to apply an electric current to the metal trace.

Delivery device including reactive material for programmable discrete delivery of a substance

A thermalization structure is formed using a foil and a low temperature device (LTD). The foil includes a first layer of a first material. The LTD includes a surface from which heat is transferred away from the LTD. A coupling is formed between the foil and the surface of the LTD, where the coupling includes a bond formed between the foil and the surface such that forming the bond forms a set of ridges in the foil, a ridge in the set of ridges operating to dissipate the heat.

Thermalization structure for cryogenic temperature devices

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Yorktown Heights, NY, United States of America

Bucknell Chapman Webb