DR. EDWARD JOSEPH EYRING, M.D.
Medical Practice at 4500, Salt Lake City, UT

License number
Utah 313827-1205
Category
Medical Practice
Type
Specialist
Address
Address
348 E 4500 S SUITE 200, Salt Lake City, UT 84107
Phone
(801) 265-3978
(801) 265-3988 (Fax)

Personal information

See more information about EDWARD JOSEPH EYRING at radaris.com
Name
Address
Phone
Edward Eyring
1805 Millbrook Rd, Salt Lake Cty, UT 84106
(801) 721-6048
Edward Eyring
4570 Sycamore Dr, Salt Lake Cty, UT 84117
(801) 831-0233
Edward J Eyring, age 57
1805 Millbrook Rd, Salt Lake City, UT 84106
(801) 484-1794
(801) 832-1936
Edward J Eyring
348 4500, Salt Lake City, UT 84107
(801) 265-3978
Edward J Eyring, age 57
3120 Crestline Dr, Park City, UT 84060
(435) 649-3177

Professional information

Edward Eyring Photo 1

Professor Of Chemistry At University Of Utah

Location:
Greater Salt Lake City Area
Industry:
Higher Education


Edward Eyring Photo 2

Owner, Ccrd

Location:
Greater Salt Lake City Area
Industry:
Hospital & Health Care


Edward Eyring Photo 3

Manager At Lds Church

Location:
Greater Salt Lake City Area
Industry:
Oil & Energy


Edward Joseph Eyring Photo 4

Edward Joseph Eyring, Salt Lake City UT

Specialties:
Colon & Rectal Surgery, Orthopaedic Surgery, Surgery
Work:
Colon & Rectal Ctr Of UT
348 E 4500 S, Salt Lake City, UT 84107
Education:
University of Tennessee (1994)


Edward Eyring Photo 5

Selective Generation Of Multi-Metallic Sites On Substrates And Associated Products

US Patent:
2006005, Mar 16, 2006
Filed:
Aug 29, 2005
Appl. No.:
11/215828
Inventors:
Richard Ernst - Salt Lake City UT, US
Edward Eyring - Salt Lake City UT, US
Gregory Turpin - Salt Lake City UT, US
Brian Dunn - Salt Lake City UT, US
International Classification:
B05D 1/36, B32B 17/06, B32B 9/00, B32B 15/00, C03C 27/02
US Classification:
428432000, 427402000, 428469000, 428701000, 428702000, 428629000, 428632000, 428660000, 428670000
Abstract:
A method for forming multi-metallic sites on a substrate is disclosed and described. A substrate including active groups such as hydroxyl can be reacted with a pretarget metal complex. The target metal attached to the active group can then be reacted with a secondary metal complex such that an oxidation-reduction (redox) reaction occurs to form a multi-metallic species. The substrate can be a highly porous material such as aerogels, xerogels, zeolites, and similar materials. Additional metal complexes can be reacted to increase catalyst loading or control co-catalyst content. The resulting compounds can be oxidized to form oxides or reduced to form metals in the ground state which are suitable for practical use.


Edward Eyring Photo 6

Ultra Small Synthetic Doped Ferrihydrite With Nanoflake Morphology For Synthesis Of Alternative Fuels

US Patent:
2011020, Aug 18, 2011
Filed:
Aug 16, 2010
Appl. No.:
12/857387
Inventors:
Sumit Bali - Salt Lake City UT, US
Garima Bali - Salt Lake City UT, US
Edward M. Eyring - Salt Lake City UT, US
Richard D. Ernst - Salt Lake City UT, US
Ronald J. Pugmire - Salt Lake City UT, US
International Classification:
C07C 27/00, B01J 23/78, B01J 21/02, B01J 21/06, B01J 23/745, B01J 23/889, B01J 23/89, B01J 23/86, B01J 23/83, B01J 23/80, B01J 35/02, B01J 35/10, B01J 37/08, B01J 37/03
US Classification:
518719, 502330, 502243, 502331, 502324, 502326, 502317, 502303, 502343
Abstract:
A ferrihydrite catalyst composition can comprise a ferrihydrite of a structural promoter metal, a chemical promoter metal and potassium to form an amorphous nanoparticulate. The ferrihydrite catalyst can be formed by dissolving an iron salt, a structural promoter metal salt and a chemical promoter metal salt in water to form an aqueous iron solution. A ferrihydrite solid can be precipitated from the aqueous iron solution by addition of a precipitating agent under conditions such that the ferrihydrite solid is a nanoparticulate. A potassium can be incorporated into the ferrihydrite solid to form a ferrihydrite catalyst precursor. The ferrihydrite catalyst precursor can be calcined to form the ferrihydrite catalyst. A synthesis gas can be readily converted to a fuel product by contacting the ferrihydrite catalyst with the synthesis gas under reaction conditions sufficient to form a fuel product mixture.


Edward Eyring Photo 7

Composite Ceria-Coated Aerogels And Methods Of Making The Same

US Patent:
8435918, May 7, 2013
Filed:
Mar 15, 2007
Appl. No.:
11/725168
Inventors:
Edward M. Eyring - Salt Lake City UT, US
Richard D. Ernst - Salt Lake City UT, US
Gregory C. Turpin - Salt Lake City UT, US
Brian C. Dunn - Bartlesville OK, US
Assignee:
University of Utah Research Foundation - Salt Lake City UT
International Classification:
B01J 23/00, B01J 23/10, B01J 23/70, B01J 23/74, B01J 23/42, B01J 23/44, B01J 23/02, B01J 23/04, B01J 23/72, B32B 3/00, B32B 3/26
US Classification:
502304, 502305, 502319, 502321, 502325, 502337, 502338, 502339, 502344, 502345, 502349, 502350, 502353, 4283122
Abstract:
Ceria-coated aerogels can include an aerogel support material having a stabilized ceria coating thereon. The ceria coating can be formed by solution or vapor deposition of alcogels or aerogels. Additional catalytic metal species can also be incorporated into the coating to form multi-metallic compounds having improved catalytic activity. Further, the ceria coated aerogels retain high surface areas at elevated temperatures. Thus, improvements in catalytic activity and thermal stability can be achieved using these ceria-coated composite aerogels.


Edward Eyring Photo 8

Supercritical Pentane As An Extractant For Oil Shale

US Patent:
8485257, Jul 16, 2013
Filed:
Aug 6, 2009
Appl. No.:
12/537056
Inventors:
Garima Singh Bali - Salt Lake City UT, US
Sumit Bali - Salt Lake City UT, US
Ronald J. Pugmire - Salt Lake City UT, US
Edward M. Eyring - Salt Lake City UT, US
Mark Dean Looney - Houston TX, US
Assignee:
Chevron U.S.A. Inc. - San Ramon CA
University of Utah Research Foundation - Salt Lake City UT
International Classification:
E21B 36/00
US Classification:
166303
Abstract:
Methods of extracting a hydrocarbon-based product from subsurface (oil) shale formations are provided. These methods rely on the use of an extraction fluid comprising pentane for facilitating the production of a mobile hydrocarbon-based product when the pentane contacts hydrocarbons in subsurface shale. The contacting process, and the subsequent process of recovering the mobile hydrocarbon-based product, is further enhanced by the methods of fracturing and/or rubblizing portions of the shale formation, so as to enhance their fluid permeability.