Medtronic, Inc.

Corning Incorporated

Invenios Inc

David A Ruben

Michael S Sandlin

Andreas A Fenner

Paul F Gerrish

John K Day

Michael F Mattes

Andrew J Ries

Craig L Schmidt

Mark E Henschel

Lary R Larson

James R Wasson

Anna J Malin

Scott B Sleeper

Jennifer Lorenz Marckmann

Richard J O'Brien

Kamal Deep Mothilal

Larry Earl Tyler

Michael A Schugt

Georges Roussos

Thomas M Wynne

Malcolm Grief

Christopher T Kinsey

Bruce C Fleischhauer

Xiangnan He

Jonathan P Roberts

Raymond Miller Karam

Lynn M Seifried

Craig L Wiklund

Robert A Munoz

Clark B Norgaard

James M Sikorski

Jeffrey L Galvin

Roy L Inman

Bill R Simmons

Peter C Tortorici

Joan A O'Gara

Randal C Schulhauser

Randy S Roles

Robert T Sawchuk

Kris A Peterson

Mohsen Askarinya

Todd A Kallmyer

Ralph B Danzl

John E Nicholson

Chunho Kim

Thomas M Nutzman

Juan G Milla

Michael J Nidelkoff

Geoffrey DeWitt Batchelder

Patrick P Senarith

Tyler Mueller

Patrick F Malone

Michael William Barror

Samuel F Haq

Raymond M Karam, Ii

Erik J Herrmann

James D Bradley

Trevor D Marrott

Yongqian Wang

Larry R Larson

James E Volmering

Jason D Hamack

John V Anderson, Ii

Brian S Child

Per Klype

Lourdes O Kline

Jeff Galvin

Ronald F Messer

Louis A Molinari

Pankti N Shah

Rodney D Toles

Jonathan R Smith

Terry W Bruneau

Steve Craig Warren

David W Parkin

Robert V Hemann, Jr

Chetan Patel

David Brian Hall

Malcolm K Grief

Todd A Kallmeyer

Bulk materials having a kinetically limited nano-scale diffusion bond is provided. The bulk materials having a kinetically limited nano-scale diffusion bond includes transparent material, absorbent opaque material and a diffusion bond. The transparent material has properties that allow an electromagnetic beam of a select wavelength to pass there through without more than minimal energy absorption. The absorbent opaque material has properties that significantly absorb energy from the electromagnetic beam. The diffusion bond is formed by the electromagnetic beam bonding the transparent material to the absorbent opaque material. Moreover, the diffusion bond has a thickness that is less than 1000 nm.

Kinetically limited nano-scale diffusion bond structures and methods

Various embodiments of a hermetic assembly and a method of forming such assembly are disclosed. The hermetic assembly includes a dielectric substrate having a first major surface and a second major surface, a patterned layer connected to the first major surface of the dielectric substrate by a laser bond, and a ferrule having a body and a flange extending from the body. The flange is welded to a welding portion of the patterned layer that is disposed between the flange and the first major surface of the dielectric substrate such that the ferrule is hermetically sealed to the dielectric substrate.

Hermetic assembly and device including same

Various embodiments of an electronic package and implantable medical device are disclosed. The electronic package includes a nonconductive substrate having a first major surface, a second major surface, and an opening disposed through the substrate between the first major surface and the second major surface. The package also includes a conductive layer hermetically sealed to the first major surface of the substrate and over the opening; a conductor block disposed in the opening and extending beyond the second major surface of the substrate, where the conductor block is electrically connected to the conductive layer; and an electronic device disposed adjacent to the first major surface of the substrate and electrically connected to the conductive layer. The package also includes a nonconductive cover disposed over the electronic device and the nonconductive substrate and hermetically sealed to the substrate, where the electronic device is disposed within a cavity of the cover.

Electronic package and device including same

A system may include an emitting device and a controller. The emitting device may be adapted to emit a first laser beam and a second laser beam. The controller may include one or more processors and may be operably coupled to the emitting device to control emission of the first and second laser beams. The controller may be adapted to remove a portion of a workpiece to form an exposed surface of the workpiece with the first laser beam using the emitting device and to remove a portion of the exposed surface with the second laser beam using the emitting device.

Laser cutting system

A system includes an energy source, a focusing system, and a controller. The energy source is configured to output energy pulses to the focusing system. A chamber surrounds at least a portion of a metallic substrate and contain a liquid in contact with a surface of the metallic substrate. The controller is configured to cause the energy source to output energy pulses and cause the focusing system to focus a focal volume of the energy pulses at or near the surface of the metallic substrate that is in contact with the liquid to create micro-scale or smaller surface texturing on the metallic substrate.

Surface texturing using energy pulses

Methods of forming hermetically-sealed packages are disclosed. In one or more embodiments, the hermetically-sealed package can include a housing and a feedthrough assembly that forms a part of the housing. The feedthrough assembly can include a non-conductive substrate and a feedthrough. The feedthrough can include a via from an outer surface to an inner surface of the non-conductive substrate, a conductive material disposed in the via, and an external contact disposed over the via on the outer surface of the non-conductive substrate. The external contact can be electrically coupled to the conductive material disposed in the via. Further, the external contact can be hermetically sealed to the outer surface of the non-conductive substrate by a laser bond surrounding the via.

Methods for forming hermetically-sealed packages including feedthrough assemblies

Various embodiments of a nuclear radiation particle power converter and method of forming such power converter are disclosed. In one or more embodiments, the power converter can include first and second electrodes, a three-dimensional current collector disposed between the first and second electrodes and electrically coupled to the first electrode, and a charge carrier separator disposed on at least a portion of a surface of the three-dimensional current collector. The power converter can also include a hole conductor layer disposed on at least a portion of the charge carrier separator and electrically coupled to the second electrode, and nuclear radiation-emitting material disposed such that at least one nuclear radiation particle emitted by the nuclear radiation-emitting material is incident upon the charge carrier separator.

Nuclear radiation particle power converter

Various embodiments of a sealed package and a method of forming such package are disclosed. The package can include a non-conductive substrate that includes a cavity disposed in a first major surface. A cover layer can be disposed over the cavity and attached to the first major surface of the non-conductive substrate to form a sealed enclosure. The sealed package can also include a feedthrough that includes a via between a recessed surface of the cavity and a second major surface of the substrate, and a conductive material disposed in the via. An external contact can be disposed over the via on the second major surface of the non-conductive substrate, where the external contact is electrically connected to the conductive material disposed in the via. The sealed package can also include an electronic device disposed within the sealed enclosure that is electrically connected to the external contact.

Sealed package and method of forming same

Various embodiments of a pressure sensor assembly and an implantable medical device that includes such assembly are disclosed. The assembly includes a substrate having a via that extends through the substrate along a via axis between a first major surface and a second major surface of the substrate, a membrane disposed on the first major surface of the substrate and over the via, and a patterned metal layer disposed on a first major surface of the membrane, a portion of such layer including a first capacitor plate. The assembly further includes an integrated circuit disposed adjacent to the first major surface of the membrane and electrically connected to the metal layer. The integrated circuit includes a second capacitor plate disposed on or within a substrate of the integrated circuit. The first capacitor plate and the second capacitor plate form a variable capacitor disposed along the via axis.

Pressure sensor assembly for use in implantable medical device including a substrate having via that extends through substrate along via axis between first major surface and second major surface of substrate

A system includes an energy source, a focusing system, and a controller. The energy source is configured to output energy pulses to the focusing system. A chamber surrounds at least a portion of a metallic substrate and contains a liquid in contact with a surface of the metallic substrate. The controller is configured to cause the energy source to output energy pulses and cause the focusing system to focus a focal volume of the energy pulses at or near the surface of the metallic substrate that is in contact with the liquid to create micro-scale or smaller surface texturing on the metallic substrate.

A glass wafer has an internal surface and an opposing external surface separated by a wafer thickness. A hermetic, electrically conductive feedthrough extends through the wafer from the internal surface to the opposing external surface. The feedthrough includes a feedthrough member having an inner face exposed along the internal surface for electrically coupling to an electrical circuit. The feedthrough member extends from the inner face partially through the wafer thickness to an exteriorly-facing outer face hermetically embedded within the wafer.

Hermetic conductive feedthroughs for a semiconductor wafer

Various embodiments of a power source and a method of forming such power source are disclosed. The power source can include an enclosure, a substrate disposed within the enclosure, and radioactive material disposed within the substrate and adapted to emit radioactive particles. The power source can further include a diffusion barrier disposed over an outer surface of the substrate, and a carrier material disposed within the enclosure, where the carrier material includes an oxide material.

Power source and method of forming same

Various embodiments of a sealed package and a method of forming the package are disclosed. The package can include a housing extending along a housing axis between a first end and a second end, and an electronic device disposed within the housing that includes a device contact. The package can also include an external contact hermetically sealed to the housing at the first end of the housing, and a conductive member electrically connected to the external contact and the device contact such that the conductive member electrically connects the electronic device to the external contact. The conductive member is compressed between the external contact and the device contact.

Sealed implantable medical device and method of forming same

Growing community of inventors

Mesa, AZ, United States of America

David A Ruben