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Mufit Akinc

from Leander, TX
Age ~76
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Also known as:
Mufit Akine, Mufit A Kinc, Musi Akin, Mert Akinc, Akinc Mufit, T C
Phone and address:
2228 Long Bow Dr, Leander, TX 78641
(515) 292-5766
Related to:
Akin B Akinc, 48Bridget A Akinc, 48Katherine C Akinc, 42Sevinc S Akinc, 71Mert M Akinc, 43
Connected to:
Opeyemi Akinde, 29Akintoye Akindele, 32Ayodele Akindele, 66Ibukunoluwa Akindele, 38Michael O Akindele, 40Olusina M Akinduro, 62Temitope A Akinduro, 42Folasade M Akinfemiwa, 53Olubunmi I Akingbola, 57Olusegun Akingboju, 47

Mufit Akinc Phones & Addresses

  • 2228 Long Bow Dr, Leander, TX 78641 (515) 292-5766
  • 4114 Laura Ct, Ames, IA 50010 (515) 292-5766
  • 4929 Utah Dr, Ames, IA 50014 (515) 292-5766

Work

Position: Professional/Technical

Education

Degree: Graduate or professional degree

Publications

Us Patents

Method For Preparing Superconductors Ceramic Composition

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US Patent:
49066080, Mar 6, 1990
Filed:
Dec 28, 1987
Appl. No.:
7/136102
Inventors:
Mufit Akinc - Ames IA
Ahmet Celikkaya - Ames IA
Assignee:
Iowa State University Research Foundation - Ames IA
International Classification:
C04B 3551
US Classification:
505 1
Abstract:
A process of forming superconductor ceramic oxides from a melt of barium hydroxide and a copper salt selected from copper nitrate and copper acetate.

Carbon Or Boron Modified Titanium Silicide

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US Patent:
55805183, Dec 3, 1996
Filed:
Jul 12, 1994
Appl. No.:
8/273955
Inventors:
Andrew J. Thom - Slater IA
Mufit Akinc - Ames IA
Assignee:
Iowa State University Research Foundation - Ames IA
International Classification:
C22C 1400
US Classification:
420417
Abstract:
A titanium silicide material based on Ti. sub. 5 Si. sub. 3 intermetallic compound exhibits substantially improved oxidative stability at elevated temperatures. In particular, carbon is added to a Ti. sub. 5 Si. sub. 3 base material in an amount (e. g. about 0. 3 to about 3. 6 weight % C) effective to impart substantially improved oxidative stability at elevated temperatures, such as about 1000. degree. C. Boron is added to a Ti. sub. 5 Si. sub. 3 base material in an amount (e. g. about 0. 3 to about 3. 3 weight % B) to this same end.

Thermoporosimeter

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US Patent:
50023993, Mar 26, 1991
Filed:
May 24, 1989
Appl. No.:
7/356748
Inventors:
Mufit Akinc - Ames IA
Yuksel Sarikaya - Bahcelievler Ankara, TR
International Classification:
G01N 1508
G01N 2556
US Classification:
374 14
Abstract:
A thermoporosimeter for accurately and inexpensively determining porosity characteristics of material. The material is saturated with a liquid and then placed within an enclosed area and in communication with a mass measuring unit. A furnace with a furnace control provides increasing heat to the material within the enclosed area. As the liquid saturated in the pores of the material evaporates, the mass of the material changes and is recorded by the mass measuring unit. The mass measuring unit communicates the values for mass change through an interface to a microcomputer. A temperature sensor located within the enclosed area also provides temperature values to the computer through an interface. By measuring the change in mass as a function of temperature, it is possible to determine porosity characteristics of the material, which include but are not limited to, pore size, pore volume, and pore size distribution of the material.

Carbon Or Boron Modified Titanium Silicide

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US Patent:
56932898, Dec 2, 1997
Filed:
Aug 15, 1996
Appl. No.:
8/698506
Inventors:
Andrew J. Thom - Slater IA
Mufit Akinc - Ames IA
Assignee:
Iowa State University Research Foundation, Inc. - Ames IA
International Classification:
C22L 1400
US Classification:
420417
Abstract:
A titanium silicide material based on Ti. sub. 5 Si. sub. 3 intermetallic compound exhibits substantially improved oxidative stability at elevated temperatures. In particular, carbon is added to a Ti. sub. 5 Si. sub. 3 base material in an amount (e. g. about 0. 3 to about 3. 6 weight % C) effective to impart substantially improved oxidative stability at elevated temperatures, such as about 1000. degree. C. Boron is added to a Ti. sub. 5 Si. sub. 3 base material in an amount (e. g. about 0. 3 to about 3. 3 weight % B) to this same end.

Carbon Or Boron Modified Titanium Silicide

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US Patent:
57798230, Jul 14, 1998
Filed:
Aug 15, 1996
Appl. No.:
8/698507
Inventors:
Andrew J. Thom - Slater IA
Mufit Akinc - Ames IA
Assignee:
Iowa State University Research Foundation, Inc. - Ames IA
International Classification:
C22C 2704
US Classification:
148423
Abstract:
A titanium silicide material based on Ti. sub. 5 Si. sub. 3 intermetallic compound exhibits substantially improved oxidative stability at elevated temperatures. In particular, carbon is added to a Ti. sub. 5 Si. sub. 3 base material in an amount (e. g. about 0. 3 to about 3. 6 weight % C) effective to impart substantially improved oxidative stability at elevated temperatures, such as about 1000. degree. C. Boron is added to a Ti. sub. 5 Si. sub. 3 base material in an amount (e. g. about 0. 3 to about 3. 3 weight % B) to this same end.

Boron Modified Molybdenum Silicide And Products

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US Patent:
58659099, Feb 2, 1999
Filed:
Aug 19, 1996
Appl. No.:
8/699647
Inventors:
Mitchell K. Meyer - Idaho Falls ID
Mufit Akinc - Ames IA
Assignee:
Iowa State University Research Foundation, Inc. - Ames IA
International Classification:
C22C 2704
US Classification:
148423
Abstract:
A boron-modified molybdenum silicide material having the composition comprising about 80 to about 90 weight % Mo, about 10 to about 20 weight % Si, and about 0. 1 to about 2 weight % B and a multiphase microstructure including Mo. sub. 5 Si. sub. 3 phase as at least one microstructural component effective to impart good high temperature creep resistance. The boron-modified molybdenum silicide material is fabricated into such products as electrical components, such as resistors and interconnects, that exhibit oxidation resistance to withstand high temperatures in service in air as a result of electrical power dissipation, electrical resistance heating elements that can withstand high temperatures in service in air and other oxygen-bearing atmospheres and can span greater distances than MoSi. sub. 2 heating elements due to improved creep resistance, and high temperature structural members and other fabricated components that can withstand high temperatures in service in air or other oxygen-bearing atmospheres while retaining creep resistance associated with Mo. sub. 5 Si. sub. 3 for structural integrity.
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Mufit Akinc from Leander, TX, age ~76 Get Report