Thomas A. Manz
Purdue University, West Lafayette, Indiana
office:
Forney Hall of Chemical Engineering, Room 117b
Advisors: Prof. Thomson (co-chair), Prof. Caruthers (co-chair), Prof. Delgass, Prof. Abu-Omar Purdue Catalysis Group Homepage Education:
Teaching Experience:
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Research Interests: Computational catalysis and reaction kinetics; fundamentals and applications of quantum mechanics
I am interested in the use of quantum mechanics to calculate reaction mechanisms of catalytic reactions by organometallic complexes. My PhD project involves the use of density functional theory (DFT) to study the kinetics of olefin polymerization by titanium and zirconium single-site catalysts. I am also interested in research in other areas of quantum mechanics and the development of space mixing theory.
Publications and Presentations: (click on title to view in new window)
Refereed Papers
T.A. Manz, A.E. Fenwick, K. Phomphrai, I.P. Rothwell, and K.T. Thomson, The Nature of Aryloxide and Arylsulfide Ligand Bonding in Dimethyltitanium Complexes Containing Cyclopentadienyl Ligation, Dalton Transactions, 2005, 668-674.
S.N. Thomas-Pryor, T.A. Manz, Z. Liu, T.A. Koch, S.K. Sengupta, and W.N. Delgass, Hydrogenation of Butyronitrile by Promoted Raney(r) Nickel Catalysts, Catalysis of Organic Reactions, F. Herkes, ed., Marcel Dekker, New York (1998) 195-206.
Other Publications
T.A. Manz, Founding Principles of Space Mixing Theory, J Space Mixing 1 (2003) 1-17.
Masters Thesis
T.A. Manz, Hydrogenation of Butyronitrile on Promoted Raney(r) Nickel Catalysts (Abstract), Purdue University, May 1998, Major Prof: W.N. Delgass
Oral Conference Presentations
James M. Caruthers (speaker), W. Nicholas Delgass, Mahdi Abu-Omar, Kendall T. Thomson, Venkat Venkatasubramanian, Gary E. Blau, Thomas A. Manz, Grigori Medvedev, Jesmin Haq, Krista A. Novstrup, Khamphee Phomphrai, Shalini Sharma, Balachandra B. Krishnamurthy, “Discovery Informatics for Catalyst Design: Single Site Olefin Polymerization Catalysts,” AICHE Annual Meeting, Cincinnati, OH, October 30 – November 4, 2005.
T.A. Manz (speaker), K.T. Thomson, J.M. Caruthers, and W.N. Delgass, Computational Modeling of Olefin Polymerization by Titanium Aryloxide Catalysts, AICheE Annual Meeting, Austin, TX, November 7-12, 2004.
T.A. Manz, “A Study of Olefin Polymerization by Ti and Zr Aryloxide Catalysts Using Density Functional Theory and Descriptor Analysis,” 14th Annual GSO Research Symposium, School of Chemical Engineering, Purdue University, Aug. 2005.
S.N. Thomas-Pryor, T.A. Manz, Z. Liu, T.A. Koch, S.K. Sengupta, and W.N. Delgass (speaker), “Selective Hydrogenation of Butyronitrile over Promoted Raney® Nickel Catalysts,” 17th Conference on Catalysis of Organic Reactions, Organic Reactions Catalysis Society, New Orleans, LA, March 30 – April 4, 1998.
Note: I will also be presenting a paper at the AICHE meeting in Nov. 2006.
Recent Poster Presentations (2004-2006)
(1.) 15th Annual GSO Research Symposium, School of Chemical Engineering, Purdue, Aug. 2006.
(2.) Meet the Faculty Candidate Poster Session, AICHE 2005 Annual Meeting, Cincinnati, Oct. 2005.
(3.) Thomas A. Manz, Kendall T. Thomson, James M. Caruthers, W. Nicholas Delgass, “Olefin Polymerization by Single-Site Ti and Zr Aryloxide Complexes,” AICHE Annual Meeting, Cincinnati, OH, Nov. 2005.
(4.) 14th Annual GSO Research Symposium, School of Chemical Engineering, Purdue, Aug. 2005.
(5.) DOE molecular modeling workshop, Purdue University, Sept. 2004. (view)
(6.) 13th Annual GSO Research Symposium, School of Chemical Engineering, Purdue, Aug. 2004. (view)
Professional Affiliations:
American Institute of Chemical Engineers, American Institute of Physics, American Association for the Advancement of Science, American Chemical Society
Honors and Awards:
The University of Toledo – Freshman Beyer Scholarship
Purdue University – Second place poster, 2006 Chemical Engineering Graduate Research Symposium
Other Activities and Interests:
I started and edit a small online journal called the Journal of Space Mixing dedicated to the development of a theory which unifies gravitational interactions with quantum theory to form a unified model of physical interactions.
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