University of Connecticut

Texaco Inc.

United Technologies Corporation

Toyota Motor Corporation

Honda Motor Co., Ltd.

E.i. Dupont De Nemours and Company

Toyota Motor Engineering & Manufacturing North America, Inc.

Exxonmobil Research and Engineering Company

Other

Fujitsu Corporation

Honda Giken Kogyo Kabushiki Kaisha

Rohm and Haas Company

Northeastern University

Exxonmobil Technology and Engineering Company

Crompton Gmbh

Steven Lawrence Suib

Chi-Lin O'Young

Francis S Galasso

Hirohito Hirata

Paul Timothy Fanson

Masaya Ibe

Partha Nandi

Lei Jin

David Richard Corbin

Robert A Sawicki

Christopher James Brooks

Scott S Han

Christopher J Brooks

Yan-Fei Shen

Altug Suleyman Poyraz

Richard P Zerger

Boxun Hu

Chung-hao Kuo

Russell E Malz, Jr

Eric Rolland Kreidler

Young-Chan Son

Eric H Jordan

Timothy D Shaffer

Douglas Michael Berczik

Youming Xiao

Tharindu M P K Kapuge

Zongchao Zhang

Jikang Yuan

Young Chan Son

David A Kriz

Sumathy Raman

Daniel J Martenak

Michael A Kmetz

Masao Hiyane

Yuji Hayashi

Victor Stancovski

Amy R Howell

Justin Reutenauer

Lakshitha R Pahalagedara

Hiroshige Matsumoto

Shuji Tanabe

Niluka D Wasalathanthri

Beng J Tan

John M Laliberte

Yuan-Gen Yin

Wen-Qing Xu

Benj J Tan

Roberto Nguyen Dequzman

Chi Lin O'Young

Mark William Simon

Stephanie Brock

Madhavi N Pahalagedara

Wimalika Thalgaspitiya

Dinithi Rathnayake

Zhu Luo

Curtis Guild

D A Saminda Dharmarathna

Samuel Frueh

Aparna Iyer

Jacquelynn Garofano

Chun-Hu Chen

Sinue Gomez

Kinga Malinger

Vinit Makwana

Shanthakumar Sithambaram

Albert J Sacco

Qiuhua Zhang

Ranjit Kumar

Luis Javier Garces

Wimalika R K Thalgaspitiya

Manuel Marquez

Oscar Giraldo

Wimalika Rasangi Kumari Thalgaspitiya

Samuel Freuh

Eric R Kreidler

Hu Boxun

Systems and methods are provided for direct conversion of methane and/or ethane to methanol. The methods can include exposing methane to an oxidant, such as O, in a solvent at conditions that are supercritical for the solvent while having a temperature of 310&#xb0; C. or less, or about 300&#xb0; C. or less, or about 290&#xb0; C. or less. The solvent can correspond to an electron donor solvent that, when in a supercritical state, can complex with O. By forming a complex with the O, the supercritical electron donor solvent can facilitate conversion of alkane to methanol at short residence times while reducing or minimizing further oxidation of the methanol to other products.

Catalytic partial oxidation of methane

The present disclosure relates to mesoporous metal titanate materials composition. Specifically, the present disclosure relates to a mesoporous metal titanate material composition that is active for multiple reactions, including aromatic alkylation, alkene coupling, alkene cyclization, alkyne oxidation, alcohol dehydrogenation reactions.

Mesoporous metal titanates as multifunctional catalysts

The present disclosure relates to tungsten oxide composition. Specifically, the present disclosure relates to mesoporous tungsten oxide composition that is active for multiple reactions, including aromatic alkylation, alkene coupling, alkene cyclization, alkyne oxidation, alcohol dehydrogenation reactions.

Mesoporous tungsten oxide composition

The present disclosure relates to tungsten bronze thin films and method of making the same. Specifically, the present disclosure relates to a thin, homogeneous, highly conducting cubic tungsten bronze film with densely packed micron size particles and the process of making the film.

Tungsten bronze thin films and method of making the same

Systems and methods are provided for direct methane conversion to methanol. The methods can include exposing methane to an oxidant, such as O, in a solvent at conditions that are substantially supercritical for the solvent while having a temperature of about 310&#xb0; C. or less, or about 300&#xb0; C. or less, or about 290&#xb0; C. or less. The solvent can correspond to an electron donor solvent that, when in a supercritical state, can complex with O. By forming a complex with the O, the supercritical electron donor solvent can facilitate conversion of methane to methanol at short residence times while reducing or minimizing further oxidation of the methanol to other products.

This disclosure provides a unique approach for the synthesis of non-stoichiometric, mesoporous metal oxides with nano-sized crystalline wall. The as-synthesized mesoporous metal oxide is very active and stable (durability &#x3e;11 h) electocatalyst in both acidic and alkaline conditions. The intrinsic mesoporous metal oxide serves as an electrocatalyst without the assistant of carbon materials, noble metals, or other materials, which are widely used in previously developed systems. The as-synthesized mesoporous metal oxide has large accessible pores (2-50 nm), which are able to facilitate mass transport and charge transfer. The as-synthesized mesoporous metal oxide requires a low overpotential and is oxygen deficient. Oxygen vacancies and mesoporosity served as key factors for excellent performance.

Mesoporous metal oxides, preparation and applications thereof

A mesoporous metal doped cerium oxide catalyst is provided. The catalyst can contain nanotextured cerium oxide (CeO) which can be utilized for hydrogen production or reformate gas purification in a water gas shift reaction. The catalyst may be advantageously used to remove CO from a gas containing CO. The catalyst may also be incorporated into a fuel processor.

Mesoporous metal doped cerium oxide catalyst

A process for preparing a mesoporous material, e.g., transition metal oxide, sulfide, selenide or telluride, Lanthanide metal oxide, sulfide, selenide or telluride, a post-transition metal oxide, sulfide, selenide or telluride and metalloid oxide, sulfide, selenide or telluride. The process comprises providing an acidic mixture comprising a metal precursor, an interface modifier, a hydrotropic or lyotropic ion precursor, and a surfactant; and heating the acidic mixture at a temperature and for a period of time sufficient to form the mesoporous material. A mesoporous material prepared by the above process. A method of controlling nano-sized wall crystallinity and mesoporosity in mesoporous materials. The method comprises providing an acidic mixture comprising a metal precursor, an interface modifier, a hydrotropic or lyotropic ion precursor, and a surfactant; and heating the acidic mixture at a temperature and for a period of time sufficient to control nano-sized wall crystallinity and mesoporosity in the mesoporous material. Mesoporous materials and a method of tuning structural properties of mesoporous materials.

Mesoporous materials and processes for preparation thereof

This disclosure describes a new route to acrylate esters via direct catalytic partial oxidation of allyl ether using heterogeneous manganese oxide catalysts. The method involves forming allyl acrylate by contacting allyl ether, where the allyl ether is in solution with a solvent, with one or more oxidants in the presence of a mesoporous manganese oxide (MnOx) catalyst. Oxygen or peroxide can be used as the oxidant. The yield of and selectivity for acrylate ester can be very high, and process efficiency is improved over current processes.

Direct catalytic partial oxidation of allyl ether

The disclosure relates to a method for removing sulfur-containing compounds from a fluid. The method involves adding manganese oxide to the fluid; doping the manganese oxide in situ with iron, cobalt, or combinations thereof to give a doped manganese oxide adsorbent; and contacting the fluid with a selected amount of the doped manganese oxide adsorbent and at a selected temperature and pressure sufficient for the doped manganese oxide adsorbent to preferentially adsorb the sulfur-containing compounds in the fluid. The disclosure also relates to a process for preparing a doped manganese oxide adsorbent, and a doped manganese oxide adsorbent prepared by the process. The disclosure further relates to a method for tuning structural properties (e.g., surface area, pore size and pore volume) of a doped manganese oxide adsorbent.

Adsorptive desulfurization

A process for preparing a mesoporous material, e.g., transition metal oxide, sulfide, selenide or telluride, Lanthanide metal oxide, sulfide, selenide or telluride, a post-transition metal oxide, sulfide, selenide or telluride, and metalloid oxide, sulfide, selenide or telluride. The process comprises providing a micellar solution comprising a metal precursor, an interface modifier, a hydrotropic or lyotropic ion precursor, and a surfactant; and heating the micellar solution at a temperature and for a period of time sufficient to form the mesoporous material. A mesoporous material prepared by the above process. A method of controlling nano-sized wall crystallinity and mesoporosity in mesoporous materials. The method comprises providing a micellar solution comprising a metal precursor, an interface modifier, a hydrotropic or lyotropic ion precursor, and a surfactant; and heating the micellar solution at a temperature and for a period of time sufficient to control nano-sized wall crystallinity and mesoporosity in the mesoporous materials. Mesoporous materials and a method of tuning structural properties of mesoporous materials.

A process for preparing a mesoporous metal oxide, i.e., transition metal oxide. Lanthanide metal oxide, a post-transition metal oxide and metalloid oxide. The process comprises providing an acidic mixture comprising a metal precursor, an interface modifier, a hydrotropic ion precursor, and a surfactant; and heating the acidic mixture at a temperature and for a period of time sufficient to form the mesoporous metal oxide. A mesoporous metal oxide prepared by the above process. A method of controlling nano-sized wall crystallinity and mesoporosity in mesoporous metal oxides. The method comprises providing an acidic mixture comprising a metal precursor, an interface modifier, a hydrotropic ion precursor, and a surfactant; and heating the acidic mixture at a temperature and for a period of time sufficient to control nano-sized wall crystallinity and mesoporosity in the mesoporous metal oxides. Mesoporous metal oxides and a method of tuning structural properties of mesoporous metal oxides.

Mesoporous metal oxides and processes for preparation thereof

A method for oxidizing soot from diesel exhaust gas from a diesel engine. The method involves providing a diesel particulate filter for receiving the diesel exhaust gas; coating a catalyst composition on the diesel particulate filter; and contacting the soot from the diesel exhaust gas with the catalyst coated diesel particulate filter at a temperature sufficient to oxidize the soot to carbon dioxide. The catalyst composition is a doped or undoped manganese oxide octahedral molecular sieve (OMS-2) material. A diesel exhaust gas treatment system that includes a diesel particulate filter for receiving diesel exhaust gas from a diesel engine and collecting soot; and a catalyst composition coated on the diesel particulate filter. The catalyst composition is a doped or undoped manganese oxide octahedral molecular sieve (OMS-2).

Method for removing soot from exhaust gases

The present teachings are directed toward an electrocatalytic cell including a barrier, having at least a first side and a second side opposite the first side, comprising a material permeable to oxygen ions and impermeable to at least CO, CO, H, HO and hydrocarbons, an electrical power supply in communication with the barrier, a catalyst adjacent the first side of the barrier, a supply of feedstock components in communication with the first side of the barrier, a supply of a carrier gas component in communication with the second side of the barrier; wherein the feedstock components contact the catalyst and react to form hydrocarbon-containing components and oxygen-containing components, and the electrical power supply biases the barrier to thereby conduct oxygen ions from the first side to the second side. Also presented are a device and methods for producing carbon nanotubes.

Materials and design for an electrocatalytic device and method which produces carbon nanotubes and hydrocarbon transportation fuels

A process for preparing a mesoporous metal oxide, i.e., transition metal oxide, Lanthanide metal oxide, a post-transition metal oxide and metalloid oxide. The process comprises providing a micellar solution comprising a metal precursor, an interface modifier, a hydrotropic ion precursor, and a surfactant; and heating the micellar solution at a temperature and for a period of time sufficient to form the mesoporous metal oxide. A mesoporous metal oxide prepared by the above process. A method of controlling nano-sized wall crystallinity and mesoporosity in mesoporous metal oxides. The method comprises providing a micellar solution comprising a metal precursor, an interface modifier, a hydrotropic ion precursor, and a surfactant; and heating the micellar solution at a temperature and for a period of time sufficient to control nano-sized wall crystallinity and mesoporosity in the mesoporous metal oxides. Mesoporous metal oxides and a method of tuning structural properties of mesoporous metal oxides.

Growing community of inventors

Storrs, CT, United States of America

Steven Lawrence Suib