General Electric Company

Lumination LLC

Gelcore, LLC

Ge Lighting Solutions LLC

Other

Sabic Innovative Plastics IP B.v.

Ge Infrastructure Technology, LLC

Utc Fire and Security Corporation

Ge Homeland Protection, Inc.

Current Lighting Solutions, LLC

Holly Ann Comanzo

Alok Mani Srivastava

Anant Achyut Setlur

William Winder Beers

Venkatesan Manivannan

Steven Jude Duclos

William Erwin Cohen

Gopi Chandran Ramachandran

Samuel Joseph Camardello

Anil Raj Duggal

Emil Vergilov Radkov

Stanton Earl Weaver, Jr

Thomas Frederick Soules

Joseph John Shiang

Thomas Francis McNulty

Shankar Madras Venugopal

Fangming Du

Digamber Gurudas Porob

Charles Adrian Becker

Lucas Lemar Clarke

Qun Deng

Claire Susan Henderson

Sam Joseph Camardello

Mukunda Srinivas Adyam

Dan Hancu

Sergio Paulo Martins Loureiro

Prasanth Kumar Nammalwar

Daniel Darcy Doxsee

Douglas Allen Doughty

Gopi Chandran

James Anthony Ruud

Charles D Greskovich

John W Devitt

Thomas Elliot Stecher

Oltea Puica Siclovan

Vikas Midha

Chen-Lun Hsing Chen

Stanley John Stoklosa

Luke Nathaniel Brewer

Madras Venugopal Shankar

Swarnagowri Addepalli

Katalin Toth

Ge Wang

Hao Huang

Venkat Subramaniam Venkataramani

Peter William Lorraine

Robert John Filkins

Xiaolei Shi

Paul Michael Smigelski, Jr

Timothy John Sommerer

Wenxiang Cong

Vasile Bogdan Neculaes

Mohan Manoharan

Jon Bennett Jansma

Hongyi Zhou

Weijun Yin

Laszlo Balazs

Mohandas Nayak

Florencio Garcia

Ahmad Nadeem Ishaque

Yan Gao

Kevin Henry Janora

Hongbo Cao

Aharon Yakimov

Gregory Boverman

Laurence Bigio

Nagaveni Karkada

Ljudmil Slavchev Grigorov

Lucas Clarke

Sergio Martins Loureiro

Cherian Jacob

László Balázs

István Károly Deme

Suchismita Sanyal

Vijay Kumar Srivastava

Michael Greci

Zena Brown

Linda Jane Valyou Briel

Munro Howard Sykes

Emoke Abasari

Rebecca A Bompiedi

Josesph Shiang

Dan Darcy Doxsee

Vankatesan Manivannan

Linda Briel

Prasanth Kumar

A porous electrolyte structure for a solid state battery is provided. The porous electrolyte structure has an interconnected ceramic matrix with a network of open pores disposed throughout a thickness of the porous electrolyte structure. The porous electrolyte structure includes a porosity of about 20% by volume to about 80% by volume. A solid state battery cell including the porous electrolyte structure and a method of making the solid state battery cell are also provided.

Solid state battery, ceramic electrolyte structure and methods of making

A method of forming a coating on a component of an electrical machine is presented. The method includes coating a surface of the component with a ceramic material, via an electrophoretic process, to form a first coating. The method further includes contacting the first coating deposited by the electrophoretic process with a polymeric material to form a second coating. The method furthermore includes curing or melting the polymeric material in the second coating to form the coating including the ceramic material dispersed in a polymer matrix.

Methods of depositing coatings on electrical machine components

The present approach generally relates to systems and methods for implementing energy modulated tomographic imaging of nanoparticles. In certain embodiments, a first energy is used to activate probe particles labeling an anatomy or tissue of interest. The probe particles, once activated, emit photons at a different rate and/or spectrum in response to an underlying physiological event, such as action potentials propagating in the labeled anatomy or tissue. The emitted photons may then be detected and used to map or image the occurrence of the physiological event.

Energy modulated luminescence tomography

A lighting apparatus that includes a light source and a phosphor composition radiationally coupled to the light source is presented. The phosphor composition includes a first phosphor that includes a phase of general formula (I):LZO(BrX):Euwherein 0&#x2266;n&#x2266;1; L is Zn, Mg, Ca, Sr, Ba, or combinations thereof; Z is Si, Ge, or a combination thereof; and X is F, Cl, I, or combinations thereof.

Phosphor compositions and lighting apparatus thereof

Blue and green-emitting Eu-activated oxyhalide phosphors of formula A-E may be used in devices for lighting or display applications:

Oxy-bromide phosphors and uses thereof

A phosphor composition is disclosed. A phosphor composition, comprises at least 10 atomic % bromine; silicon, germanium or combination thereof; oxygen; a metal M, wherein M comprises zinc (Zn), magnesium (Mg), calcium (Ca), strontium (Sr), barium (Ba), or combinations thereof; and an activator comprising europium. The phosphor composition is formed from combining carbonate or oxides of metal M, silicon oxide, and europium oxide; and then firing the combination. A lighting apparatus including the phosphor composition is also provided. The phosphor composition may be combined with an additional phosphor to generate white light.

A method of forming a phosphor composition is disclosed. The method includes mixing co-precipitated yttrium-europium oxalate with an inorganic flux material to form an oxalate-flux mixture; and heating the oxalate-flux mixture at a temperature in a range from about 800&#xb0; C. to about 1400&#xb0; C., to form the phosphor composition. The phosphor has a general formula of (YAEu)Owith 0&#x3c;x&#x3c;1 and 0&#x2266;y&#x3c;1, wherein A is at least one element selected from the group consisting of gadolinium, lutetium, lanthanum, scandium and terbium.

Method of forming efficient phosphor powders

A lighting apparatus having a phosphor material radiationally coupled to a light source is presented. The phosphor material includes a green emitting phosphor composition of general formula I: RMCeTNOF; where 0&#x2266;x&#x3c;3.0; 0&#x2266;y&#x3c;5.0, 0&#x3c;z&#x2266;0.30; and if x=0, then y&#x3e;0 or if y=0, then x&#x3e;0; R is Y, Tb, Gd, La, Lu or a combination thereof; T is Al, Sc, Ga, In or combinations thereof; M is Ca, Sr, Ba or a combination thereof; N is Mg, Zn or a combination thereof. The phosphor composition of formula I may be combined with an additional phosphor to generate white light.

Oxyfluoride phosphor compositions and lighting apparatus thereof

A green emitting phosphor composition is disclosed. A phosphor composition of formula CaEuAlBO, where 0&#x3c;x&#x3c;0.5 is formed from combining calcium carbonate, boron oxide, aluminum oxide, and europium oxide; and then firing the combination. A lighting apparatus including the phosphor composition is also provided. The phosphor composition may be combined with an additional phosphor to generate white light.

Processes for producing particles of rare earth-containing phosphor materials, in which the particles have a core-shell structure and the shell has a lower rare earth content than the core. Such a process may include contacting a core particle with a precursor comprising Na(La,Ce,Tb)POto form a mixture, and then heating the mixture to a temperature sufficient to decompose the Na(La,Ce,Tb)POto evolve and melt an NaPOflux and initiate deposition of a (La,Ce,Tb)POshell on each core particle in the presence of the molten NaPOflux.

Process of forming phosphor particles with core shell structures

Phosphor particles, methods for their use to produce fluorescent lamps, and fluorescent lamps that make use of such particles. Such a phosphor particle has a core surrounded by a shell, and the shell contains GdMgBOdoped (activated) with at least terbium ions as a rare earth-containing phosphor composition that absorbs ultraviolet photons to emit green-spectrum light. The core is formed of a mineral material that is chemically compatible with the rare earth-containing phosphor composition of the shell, but does not contain intentional additions of terbium.

Phosphor materials, fluorescent lamps provided therewith, and methods therefor

A method of making a core-shell phosphor is provided. The method comprises mixing a lanthanum phosphate (LaPO) core with a shell precursor mixture comprising at least one compound of La, at least one compound of Ce, and at least one compound of Tb to form a core+shell precursor mixture, heating the core+shell precursor mixture to a temperature in a range from about 900&#xb0; C. to about 1200&#xb0; C. with an inorganic flux material in presence of a reductant to provide a heated core+shell precursor mixture, cooling the heated core+shell precursor mixture to ambient temperature to provide a product core-shell phosphor dispersed in the inorganic flux material; and separating the product core-shell phosphor from the inorganic flux material.

Core shell phosphor and method of making the same

Mercury vapor discharge fluorescent lamps are provided. The lamp can include a lamp envelope enclosing a discharge space and having an inner surface. First and second electrodes can be positioned on the lamp, such as on opposite ends of the lamp envelope. An ionizable medium that includes mercury and an inert gas can be within said lamp envelope. A phosphor layer can be on the inner surface of the lamp envelope. The phosphor layer generally includes a phosphor blend of a calcium halophosphor, a blue phosphor having an emission peak at about 440 nm to about 490 nm, a blue-green phosphor having an emission peak at about 475 nm to about 530 nm, and a red phosphor having an emission peak at about 600 nm to about 650 nm.

Phosphor system for improved efficacy lighting sources

Cerium, gadolinium and terbium doped aluminum phosphates of formula I may be used in fluorescent lampsAlTbCeGdLuScInLaGaPO&#x2003;&#x2003;I

Green emitting phosphor

A persistent phosphor of formula I is provided, along with methods for making and using the phosphor:AAlO:Eu, RE, B, Zn, Co, Sc&#x2003;&#x2003;I Applications for such phosphors include use in toys, emergency equipment, clothing, and instrument panels, among others.

Persistent phosphor

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Niskayuna, NY, United States of America

Holly Ann Comanzo