General Electric Company

Sabic Innovative Plastics IP B.v.

Lumination LLC

Hari Nadathur Seshadri

Karthick Vilapakkam Gourishankar

Charles Dominic Iacovangelo

Michael Alan Vallance

David Charles Bogdan, Jr

Guruprasad Sundararajan

Anbarasan Viswanathan

Amitabh Verma

Melvin Robert Jackson

Venkat Subramaniam Venkataramani

Canan Uslu Hardwicke

Krishnamurthy Anand

Atanu Saha

Steven Alfred Tysoe

Franciscus Petrus Maria Mercx

Soumyadeb Ghosh

Geetha Karavoor

Job Thomas Rijssenbeek

Satya Kishore Manepalli

Guillermo Daniel Zappi

Filippo Cappuccini

Sumanda Bandyopadhyay

Sheela Kollali Ramasesha

Madras Venugopal Shankar

David W Bogdan

Daniel Scott Albert Lentz

David Joseph Sorg

Venkatraman Sivaramakrishan

Ramachandran Gopi Chandran

Kaushik Vaidya

Aravind Dattatrayarao Chinchure

Bhanu Bhusan Khatua

David Charles Bogdan

Daniel Scott Lentz

A process for treating an electrochemical cell is presented. The process includes charging the electrochemical cell in a discharged state to at least 20 percent state-of-charge of an accessible capacity of the electrochemical cell at a first temperature to attain the electrochemical cell in a partial state-of-charge or a full state-of-charge and holding the electrochemical cell in the corresponding partial state-of-charge or full state-of-charge at a second temperature. The first temperature and the second temperature are higher than an operating temperature of the electrochemical cell.

Treatment processes for electrochemical cells

A method for use in determining the thickness of a layer of interest in a multi-layer structure. A first electrode is positioned in contact with a first surface of the multi-layer structure, and a second electrode is positioned in contact with a second surface of the multi-layer structure. The second surface is substantially opposite the first surface. The first electrode is pressed against the multi-layer structure at a predetermined sampling pressure, and the structure is optionally adjusted to a predetermined sampling temperature. The electrical impedance between the first electrode and the second electrode is measured.

System and method for use in determining the thickness of a layer of interest in a multi-layer structure

A composition includes a filler dispersed in a polymeric matrix. The filler may be electrically conducting in a temperature range and may have a Curie temperature. The composition may have a trip temperature at which electrical resistance of the composition increases with increase in temperature, and the trip temperature of the composition may be determined by the Curie temperature of the filler. The filler may be present in the polymeric matrix in an amount determined by a property of one or both of the polymeric matrix or the filler. An associated method is provided.

Composition and associated method

An energy storage device comprising an anode, electrolyte, and cathode is provided. The cathode comprises a plurality of granules comprising a support material, an active electrode metal, and a salt material, such that the cathode has a granule packing density equal to or greater than about 2 g/cc. A cathode comprising greater than about 10 volume % total metallic content in a charged state of the cathode is also provided.

Energy storage device

A composition includes a cathodic material comprising a support structure. The support structure includes copper and zinc, and has less than 1 weight percent of aluminum, tin, or aluminum and tin. An energy storage device includes a cathodic material having a support structure.

Composition and energy storage device

A composition is provided that includes a ternary electrolyte having a melting point greater than about 150 degree Celsius. The ternary electrolyte includes an alkali metal halide, an aluminum halide and a zinc halide. The amount of the zinc halide present in the ternary electrolyte is greater than about 20 mole percent relative to an amount of the aluminum halide. An energy storage device including the composition is provided. A system and a method are also provided.

Energy storage device and method

Oxidation-resistant ferritic steel alloys for high temperature applications consist essentially of chromium (Cr) in an amount from about 18 to about 25 atom percent, tungsten (W) in an amount from about 0.5 to about 2 atom percent, manganese (Mn) in an amount less than about 0.8 atom percent, aluminum (Al) in an amount less than about 0.2 atom percent, silicon (Si) in an amount less than about 0.1 atom percent, and rare earth metals that includes neodymium (Nd) in an amount from about 0.002 to about 0.2 atom percent with the balance being iron (Fe). Also disclosed herein are solid oxide fuel cells that include separators formed for the oxidation resistant ferritic alloys.

Ferritic steels for solid oxide fuel cells and other high temperature applications

An article of electrochemical energy conversion is provided that includes a separator. The separator has a first surface that defines at least a portion of a first chamber, and a second surface that defines a second chamber, and the first chamber is in ionic communication with the second chamber through the separator. The energy storage device further includes a plurality of cathodic materials. The plurality includes at least a first cathodic material and a second cathodic material. Both of the cathodic materials are in electrical communication with the separator and both are capable of forming a metal halide. A proviso is that if either of the first cathodic material or the second cathodic material is a transition metal, then the other cathodic material is not iron, arsenic, or tin.

Boron containing phosphor compositions having the formulas (1) MLn(BO)doped with at least one activator selected from the group of Eu, Mn, Pb, Ce, Eu, Tb, and Biwhere M is at least one of Mg, Ca, Sr, Ba, or Zn, and Ln is at least one of Sc, Y, La, Gd, or Lu; (2) MM'(Al, Ga)(Si, Ge)BON:Eu, Mn, Pbwhere M&#x2032; is one or more of alkali metals Na and/or K, M&#x2033; is one or more of alkaline earth Mg, Ca, Sr, Ba or Zn, 0&#x2266;x&#x2266;2, 0&#x2266;y&#x2266;2, 0&#x2266;z&#x2266;4; and z=x+y; (3) M&#x2032;M&#x2033;(Al, Ga)(Si, Ge)BONX:Eu, Mn, Pb, where M&#x2032; is one or more of alkali metals Na and/or K, M&#x2033; is one or more of alkaline earth metals Mg, Ca, Sr, Ba and/or Zn, 0&#x2266;x&#x2266;2, 0&#x2266;y&#x2266;2, 0&#x2266;z&#x2266;4; z=x+y, X&#x2550;F and/or Cl, and 0&#x2266;y&#x2032;&#x2266;2; (4) M&#x2032;M&#x2033;Al&#x2032;SiBONX:Eu, Mn, Pb, where M&#x2032; and M&#x2033; are defined above, 0&#x2266;x&#x2266;2, 0&#x2266;y&#x2266;2, 0&#x2266;z&#x2266;4; z=x+y, X&#x2550;F and/or Cl, and 0&#x2266;y&#x2032;&#x2266;2; (5) M&#x2032;M&#x2033;AlSiBONX:Eu, Mn, Pb, where M&#x2032; and M&#x2033; are defined above, 0&#x2266;x&#x2266;2, 0&#x2266;y&#x2266;2, 0&#x2266;z&#x2266;4; z=x+y, X&#x2550;F and/or Cl, and 0&#x2266;y&#x2032;&#x2266;2; (6) MAlBO:Eu, Mn, Pb; where M&#x2550;Mg, Ca, Sr, Ba or Zn; (7) MAlSiBON:Eu, Mn, Pb, where M&#x2550;Mg, Ca, Sr, Ba and/or Zn, and 0&#x2266;x&#x2266;2; and (8) MAlBSiON:Eu, Mn, Pb, where M&#x2550;Mg, Ca, Sr, Ba and/or Zn, and 0&#x2266;x&#x2266;2. Also disclosed are light emitting devices including a light source and at least one of the above phosphor compositions.

Borate phosphor materials for use in lighting applications

A system having a heat source, a component coupled to the heat source, and at least one thermistor coupled to the component and adapted to monitor temperature of the component, wherein the thermistor has a core-shell microstructure having a shell disposed about a core, the core comprising CrOand the shell comprising a rare earth element compound.

Temperature measuring device and system and method incorporating the same

Growing community of inventors

Bengaluru, India

Hari Nadathur Seshadri