Symyx Technologies, Inc.

Honda Giken Kogyo Kabushiki Kaisha

Calera Corporation

Air Products and Chemicals, Inc.

Symyx Solutions, Inc.

Other

University of California

Osram Opto Semiconductors Gmbh

Eveready Battery Company, Inc.

Nanosys, Inc.

Freeslate, Inc.

Honda R & D Americas, Inc.

Agfa Healthcare Nv

Honda Giken Kogyo Kabushiki Kaisha, Kabushiki Kaisha Honda

Martin Devenney

Konstantinos Chondroudis

Daniel Mark Giaquinta

Alexander A Gorer

Hiroyuki Oyanagi

Peter Strasser

Kenta Urata

Qun Fan

Ting He

Earl Danielson

Hiroichi Fukuda

Scott Jeffrey Weigel

John F Kirner

Brian Keith Peterson

James Edward MacDougall

C Eric Ramberg

Keith James Cendak

Keith Cendak

Miguel Fernandez

Irvin Chen

Joshua Patterson

Eric W McFarland

Chris L Camire

Thomas Albert Braymer

Keith Douglas Campbell

Kazuhiko Iwasaki

Brent Richard Constantz

Thomas R Boussie

Paul Leblans

Isy Goldwasser

Leonid Matsiev

Keith Hall

Kasra Farsad

Youqi Wang

Karin Yaccato

Matthew Ginder-Vogel

John Stagnaro

Christopher J Warren

Justin Ries

Casper Reaves

Guillaume Calas

Lisa Deis

Thomas Alan Deis

Peter G Schultz

Frank Jermann

Luc A Struye

William L Bourcier

Xiao-dong Xiang

Kai-An Wang

Michael Joseph Weiss

Andries Ellens

Wolfgang Rossner

Xiao-Dong Sun

David Olmeijer

Robert C Haushalter

Josh Harris Golden

Manfred Kobusch

Terence C Holland

Austin Smith

Frank H Feddrix

Damodara M Poojary

Laurence Clodic

Xin Di Wu

Scott W Donne

Eric Ha

Ryan Thatcher

Peng Lu

Samuel O Morgan

Gabriel Briceño

Treavor Kendall

Sum Nguyen

Keith Hodson

Chantel Cabrera Tester

Jennifer N Cendak, Legal Representative

Lisa Deis, Legal Representative

Sidney Omelon

Chris Camire

Katharine Geramita

Keith James c/o Symyx Technologies Inc Cendak

The present invention provides nanostructure compositions and methods of producing nanostructure compositions. The nanostructure compositions comprise a population of nanostructures, a stabilization additive, and an organic resin. The present invention also provides nanostructure films comprising a nanostructure layer and methods of making nanostructure films.

Acid stabilization of quantum dot-resin concentrates and premixes

Provided herein are methods comprising a) treating a slag solid or carbide lime suspension with an ammonium salt in water to produce an aqueous solution comprising calcium salt, ammonium salt, and solids; b) contacting the aqueous solution with carbon dioxide from an industrial process under one or more precipitation conditions to produce a precipitation material comprising calcium carbonate and a supernatant aqueous solution wherein the precipitation material and the supernatant aqueous solution comprise residual ammonium salt; and c) removing and optionally recovering ammonia and/or ammonium salt using one or more steps of (i) recovering a gas exhaust stream comprising ammonia during the treating and/or the contacting step; (ii) recovering the residual ammonium salt from the supernatant aqueous solution; and (iii) removing and optionally recovering the residual ammonium salt from the precipitation material.

Methods and systems for utilizing carbide lime or slag

Non-cementitious compositions and products are provided. The compositions of the invention include a carbonate additive comprising vaterite such as reactive vaterite. Additional aspects of the invention include methods of making and using the non-cementitious compositions and products.

Non-cementitious compositions comprising vaterite and methods thereof

Provided herein are compositions and methods including hydraulic cement, supplementary cementitious material, and/or self-cementing material. Methods for making the compositions and using the compositions are provided.

Methods and compositions using calcium carbonate

Formed building materials comprising a sequestered COare provided. The building materials of the invention include a composition comprising a carbonate/bicarbonate component. Additional aspects of the invention include methods of making and using the formed building materials.

Formed building materials

A fuel cell catalyst containing platinum, zinc, and at least one of nickel and iron.

Fuel cell electrocatalyst of Pt-Zn-Ni/Fe

A composition for use as a catalyst in, for example, a fuel cell, the composition comprising platinum, copper, and nickel, wherein the concentration of platinum therein is greater than 50 atomic percent and less than 80 atomic percent, and further wherein the sum of the concentrations of platinum, copper and nickel is greater than 95 atomic percent.

Platinum-copper-nickel fuel cell catalyst

The present invention is directed to a composition for use as a catalyst in, for example, a fuel cell, the composition comprising platinum and copper, wherein the concentration of platinum is greater than 50 atomic percent and less than about 80 atomic percent, and further wherein the composition has a particle size which is less than 35 angstroms. The present invention is further directed to various methods for preparing such a composition.

Platinum-copper fuel cell catalyst

A fuel cell catalyst comprising platinum, chromium, and copper, nickel or a combination thereof. In one or more embodiments, the concentration of platinum is less than 50 atomic percent, and/or the concentration of chromium is less than 30 atomic percent, and/or the concentration of copper, nickel, or a combination thereof is at least 35 atomic percent.

Platinum-chromium-copper/nickel fuel cell catalyst

An improved metal alloy composition for a fuel cell catalyst containing platinum, manganese, and cobalt.

Fuel cell electrocatalyst of Pt-Mn-Co

A fuel cell catalyst comprising platinum, titanium and tungsten. In one or more embodiments, the concentration of platinum is less than 60 atomic percent, and/or the concentration of titanium is at least 20 atomic percent, and/or the concentration of tungsten is at least 25 atomic percent.

Platinum-titanium-tungsten fuel cell catalyst

An active manganese dioxide electrode material that exhibits improved electrochemical performances compared with conventional manganese dioxide materials includes at least one dopant. The doped manganese dioxide electrode materials may be produced by a wet chemical method (CMD) or may be prepared electrolytically (EMD) using a solution containing manganese sulfate, sulfuric acid, and a dopant, wherein the dopant is present in an amount of at least about 25 ppm.

Doped manganese dioxides

Growing community of inventors

Mountain View, CA, United States of America

Martin Devenney