Eric E Stangland

US Patent:

20080275279, Nov 6, 2008

Filed:

Apr 25, 2006

Appl. No.:

11/912376

Inventors:

Simon G. Podkolzin - Midland MI, US
Eric E. Stangland - Midland MI, US
Albert E. Schweizer - Midland MI, US
Mark E. Jones - Midland MI, US

International Classification:

C07C 1/02

US Classification:

585359

Abstract:

An oxidative halogenation process involving contacting methane, a Chalogenated hydrocarbon, or a mixture thereof with a source of halogen and a source of oxygen, at a molar ratio of reactant hydrocarbon to source of halogen in a feed to the reactor greater than 23/1, and/or at a molar ratio of reactant hydrocarbon to source of oxygen in a feed to the reactor greater than about 46/1; in the presence of a rare earth halide or rare earth oxyhalide catalyst, to produce a halogenated Cproduct having at least one more halogen as compared with the Creactant hydrocarbon, preferably, methyl chloride. The process can be advantageously conducted to total conversion of source of halogen and source of oxygen. The process can be advantageously conducted with essentially no halogen in the feed to the reactor, by employing a separate catalyst halogenation step in a pulse, swing or circulating bed mode. The production of methyl halide can be integrated into downstream processes for manufacture of valuable commodity chemicals.

US Patent:

20110201841, Aug 18, 2011

Filed:

Aug 19, 2009

Appl. No.:

13/123908

Inventors:

Robert G. Bowman - Woodbury MN, US
Eric E. Stangland - Midland MI, US
Mark E. Jones - Midland MI, US
Dean M. Millar - Midland MI, US
Simon G. Podkolzin - Midland MI, US
Brien A. Stears - League City TX, US
Richard M. Wehmeyer - Lake Jackson TX, US

International Classification:

C07C 51/14
C07C 17/013

US Classification:

562520, 570243

Abstract:

Oxidatively halogenate methane by placing a feedstream that comprises methane, a source of halogen, a source of oxygen and, optionally, a source of diluent gas in contact with a first catalyst (e.g. a solid super acid or a solid super base) that has greater selectivity to methyl halide and carbon monoxide than to methylene halide, trihalomethane or carbon tetrahalide. Improve overall selectivity to methyl halide by using a second catalyst that converts at least part of the feedstream to a mixture of methyl halide, methylene halide, trihalomethane, carbon tetrahalide and unreacted oxygen, and placing that mixture in contact with the first catalyst which converts at least a portion of the methylene halide, trihalomethane and carbon tetrahalide to carbon monoxide, hydrogen halide and water.

US Patent:

20110268648, Nov 3, 2011

Filed:

Apr 28, 2011

Appl. No.:

13/096556

Inventors:

Eric E. Stangland - Midland MI, US
Daniel A. Hickman - Midland MI, US
Mark E. Jones - Midland MI, US
Simon G. Podkolzin - Midland MI, US
Shawn D. Feist - Midland MI, US

Assignee:

DOW GLOBAL TECHNOLOGIES LLC - Midland MI

International Classification:

C01B 7/04
B01J 19/28
B01J 19/00

US Classification:

423500, 422649

Abstract:

The present disclosure provides a process and a system for producing dichlorine (Cl).

US Patent:

20130012749, Jan 10, 2013

Filed:

Feb 25, 2011

Appl. No.:

13/634619

Inventors:

Yu Liu - Lake Jackson TX, US
Andrzej M. Malek - Midland MI, US
Duncan Coffey - Lake Jackson TX, US
Eric E. Stangland - Midland MI, US
Albert E. Schweizer - Port St. Lucie FL, US

International Classification:

C07C 1/22
B01J 8/00

US Classification:

585640, 422129

Abstract:

Catalytic composition for production of olefins and methods of using same to decrease production of oxygenate byproducts. The catalytic composition includes an admixture of an alumina dehydration catalyst and at least one additional metal oxide.

US Patent:

20130079576, Mar 28, 2013

Filed:

May 31, 2011

Appl. No.:

13/639940

Inventors:

Robert G. Bowman - Woodbury MN, US
Eric E. Stangland - Midland MI, US
Rainer Bruening - Leipzig, DE
Angelika Heilmann - Borna, DE
Roland Wagner - Merseburg, DE
Jason Lee Bronkema - Midland MI, US

Assignee:

Dow Global Technologies LLC - Midland MI

International Classification:

C07C 1/32

US Classification:

585638

Abstract:

Convert a methylamine (e.g. monomethylamine, dimethylamine and trimethylamine) to a mixture of olefins (e.g. ethylene, propylene and butylene) by placing the methylamine, optionally in a mixture with at least one of ammonia and an inert diluent, in contact with a microporous acidic silicoaluminophosphate catalyst or a microporous aluminosilicate catalyst.

US Patent:

20030092921, May 15, 2003

Filed:

May 30, 2002

Appl. No.:

10/159697

Inventors:

Eric Stangland - Midland MI, US
William Delgass - West Lafayette IN, US
Ronald Andres - Lafayette IN, US

International Classification:

B01J023/52
C07D301/06

US Classification:

549/533000, 502/344000, 502/242000

Abstract:

A catalyst comprises a titanium-containing oxide and gold deposited by deposition-precipitation on the oxide in a gold-bearing solution where the solution and the oxide are centrifuged to separate out the catalyst. The catalyst is used in oxidation of an olefin by contacting the olefin with a reaction gas and the catalyst which is heated in the reaction gas to a reaction temperature at a controlled heating rate to avoid agglomeration of gold species.

US Patent:

20210317004, Oct 14, 2021

Filed:

Aug 27, 2019

Appl. No.:

17/271089

Inventors:

- Midland MI, US
Manish Sharma - Missouri City TX, US
David F. Yancey - Midland MI, US
Andrzej Malek - Midland MI, US
Eric E. Stangland - Midland MI, US

Assignee:

Dow Global Technologies LLC - Midland MI

International Classification:

C01G 45/12
C01G 51/04
C01G 49/06
C01G 45/02
B02C 17/24
B01J 35/00
B01J 37/08
B01J 37/04
B01J 37/02

Abstract:

Embodiments of the present disclosure are directed to hydrogen-selective oxygen carrier materials and methods of using hydrogen-selective oxygen carrier materials. The hydrogen-selective oxygen carrier material may comprise a core material, which includes a redox-active transition metal oxide; a shell material, which includes one or more alkali transition metal oxides; and a support material. The shell material may be in direct contact with at least a majority of an outer surface of the core material. At least a portion of the core material may be in direct contact with the support material. The hydrogen-selective oxygen carrier material may be selective to combust hydrogen in an environment that includes hydrogen and hydrocarbons.

US Patent:

20210292259, Sep 23, 2021

Filed:

Aug 27, 2019

Appl. No.:

17/271139

Inventors:

- Midland MI, US
Alexey Kirilin - Hoek, NL
Andrzej Malek - Midland MI, US
Victor Sussman - Midland MI, US
Matthew T. Pretz - Freeport TX, US
Brien A. Stears - League City TX, US
Barry B. Fish - Lake Jackson TX, US
Eric E. Stangland - Midland MI, US
Brian W. Goodfellow - Sugarland TX, US
Manish Sharma - Missouri City TX, US

Assignee:

Dow Global Technologies LLC - Midland MI

International Classification:

C07C 5/48
B01J 23/08
B01J 21/06
B01J 23/42
B01J 21/10
B01J 23/26
B01J 21/04

Abstract:

According to one or more embodiments described herein, a method for dehydrogenating hydrocarbons may include passing a hydrocarbon feed comprising one or more alkanes or alkyl aromatics into a fluidized bed reactor, contacting the hydrocarbon feed with a dehydrogenation catalyst in the fluidized bed reactor to produce a dehydrogenated product and hydrogen, and contacting the hydrogen with an oxygen-rich oxygen carrier material in the fluidized bed reactor to combust the hydrogen and form an oxygen-diminished oxygen carrier material. In additional embodiments, a dual-purpose material may be utilized which has dehydrogenation catalyst and oxygen carrying functionality.