Lumination LLC

Gelcore, LLC

Graftech International Holdings Inc.

Ge Lighting Solutions LLC

Rambus Inc.

Rambus Delaware LLC

General Electric Company

Advanced Energy Technologies LLC

Firstenergy Corp.

Firstenergy Ventures Corp.

James Thomas Petroski

Srinath K Aanegola

Christopher L Bohler

Jeffery R Parker

Mathew L Sommers

Paul Southard

Greg Eugene Burkholder

Mehmet Arik

Stanton Earl Weaver, Jr

Jon Eric Washington

Emil Vergilov Radkov

Mark J Mayer

Bradley E Reis

Tomislav Josip Stimac

Witold Bauer

Kenneth Michael Burns

Lukasz S Poslowski

Robert Schindler

Lauren Rae Lucas

Michele Domiano Jones

Josh Ryan Schulte

Cheryl Ann Brubaker-Schaub

Amanda Marie Kidder

Benjamin Back Rose

Timothy William Wechter

Carl Anthony Shotwell

Brett William Reynolds

William Bagnal Timms, Iii

Matthew S Mrakovich

Todd Garrett Wetzel

Seyed Gholamali Saddoughi

Robert Anderson Reynolds, Iii

Matthew Patrick Boespflug

Charles Adrian Becker

Boris Kolodin

Robert F Karlicek

Mustafa Gursoy

Yin Xiong

Chris Bohler

Tomislav J Stimac

Robert J Schindler

Matthew Sommers

Stanton E Weaver

Dennis Marshall Chack

David Lynn Griffing

Frank P Dornauer

Thomas Edward Zink

Stanton Weaver

Zena Brown

Melissa Wesorick

Timothy Mazies

Mitchell J Hart

Srianath K Aanegola

Kerry D Moore

Anthony D Pollard

Greg E Burkholder

Charles A Becker

Paul W Southard

Thomas E Zink

A system for medicine dosage compliance may comprise a dispensing component that provides for medicine to be dispensed based at least upon authorized identification of a user and a secondary authorizer. The dispensing component may comprise an identity authentication component that automatically authenticates an identity of the user and the secondary authorizer at the time of a dispensing event. The system may further comprise a communication component providing one or more notifications to one or more third parties. The communication component may comprise a wireless personal area networking component that sets up a local networking connection between the dispensing component and a local device to share data between the dispensing component and a local device. The local device may communicatively be coupled to a remote network component. A notification component may generate notification information of the dispensing event for one or more third parties.

Material dispenser and notification system

A light source () comprises a light engine (), a base (), a power conversion circuit () and an enclosure (). The light engine () comprises at least one LED () disposed on a platform (). The platform () is adapted to directly mate with the base () which a standard incandescent bulb light base. Phosphor () receives the light generated by the at least one LED () and converts it to visible light. The enclosure () has a shape of a standard incandescent lamp.

LED-based light bulb

A light bulb () including an outer housing () shaped like a standard Edison light bulb. The interior of the bulb includes a circuit board () and one or more LEDs (). A heat sink () is provided inside the bulb housing that draws thermal energy away from the LEDs using graphite based materials.

Thermal solution for LED bulbs

A luminaire includes two housing halves, movable relative to each other between an open and closed configuration. The bottom housing half includes disposed therein a substrate which itself carries at least one LED which transmits light through a window in the bottom housing half. A thermal bridge made of at least one layer of anisotropic thermally conductive graphite is in thermal contact with the substrate and the top housing half when the housing is in the closed configuration, but its disengaged from either the substrate or top housing half when the housing is in the open configuration.

Thermal bridge for LED luminaires

A light bulb includes a light guide, light source, and housing. The light guide is configured as an open-ended hollow body surrounding an internal volume and defining a longitudinal axis. The light guide has inner and outer major surfaces. The light source is configured to edge light the light guide. The housing is at one end of the light guide. In one embodiment, fins extend from the housing adjacent the outer major surface, each fin separated from the outer major surface by an air gap to allow air flow between the fin and outer major surface. In another embodiment, a heat sink is disposed in the internal volume and configured as a hollow body with a branched cross section. Each branch extends outward from a common center and defines an air flow channel that terminates in an orifice aligned with a respective through-slot of the light guide.

Light bulb with thermal features

An electronic device includes an electronic component with a mating surface. A thermal interface sheet is attached to the mating surface. A substrate carries the electronic device and includes a face. The electronic component is secured to the substrate with the thermal interface sheet positioned between the mating surface and the face. The mating surface is relatively less flat than the face and the mating surface is relatively smoother than the face.

Method of making an electronic device

Light bulb

Housing for a recessed light

A method for reducing temperature-caused degradation of the performance of a digital reader comprising pixels, the method including positioning at least one sheet of compressed particles of exfoliated graphite adjacent to a plurality of the pixels of the digital reader.

Method for reducing temperature-caused degradation in the performance of a digital reader

Heat sink for LED light bulb

An electronic device having enhanced heat dissipation capabilities includes an electronic device, a heat sink, a channel, a piezoelectric element, and a blade. The heat sink is in thermal communication with the electronic device. The channel includes an inlet, an outlet and a constriction disposed along the channel between the inlet and the outlet. The heat sink defines at least a portion of the channel. The blade includes a free end and an attached end. The blade is disposed in the channel and connected to the piezoelectric element. The piezoelectric element is activated to move the blade side to side in the channel to create air vortices. The constriction in the channel and the blade cooperate with one another such that a vortex that is generated as the blade moves toward a first side of the channel is compressed against the first side of the channel and expelled towards the outlet of the channel.

Piezofan and heat sink system for enhanced heat transfer

Growing community of inventors

Parma, OH, United States of America

James Thomas Petroski