Professor of Chemistry (Physical Chemistry)
3203 S.E. Woodstock Ave.
Portland, OR 97202
Office: Chem 316
1997/98 Teaching Schedule:
Chem 315: Instrumentation
Chem 333: Quantum Mechanics & Mol. Struct.
Chem 316: Physical Chemistry Lab
Chem 332: Statistical Thermodynamics & Kinetics
B.A. (Chemistry) Cornell College, 1977.
Ph.D. (Physical Chemistry) Harvard University, 1982.
Thesis: "The Application of Multiphoton Techniques to the Study of Excited State Dynamics" under Prof. Veronica Vaida.
Postdoctoral studies at the University of Oregon under Prof. Bruce Hudson (1982)
Topic: "Ultraviolet Resonance Raman Studies of Electronic Excitations"
and at Los Alamos National Laboratory under Dr. James Valentini (1983)
Topic: "CARS Studies of the Energy Distributions in Chemical Reaction Products".
Assistant Professor of Chemistry, Carroll College, 1984 - 1987.
Assistant Professor of Chemistry, Reed College, May 1987 - August 1990;
Associate Professor Sept. 1990 - present.
Honors and Awards
1977 Phi Beta Kappa, Cornell College.
1977 Graduated Summa Cum Laude, with Distinction in Chemistry, Cornell College.
1977 The American Institute of Chemists' Award for Scholastic Achievement, Cornell College.
1983 Director Funded Postdoctoral Fellow, Los Alamos National Laboratory.
1984 Associated Western Universities-Department of Energy Faculty Research Fellowship.
1985 Outstanding Young Men of America Award.
Offices Held in Professional Organizations
Elected to the Executive Committee of the American Chemical Society's Division of Physical Chemistry in August, 1994; term ends in August of 1997.
Served on the Executive Committee of the Western Spectroscopy Association (WSA) from 1991-1994. In 1991, served as Secretary/Registrar for the WSA annual conference in Asilomar, California, which ran from January 29-31, 1992. Over 150 participants attended this conference.
Our work during the last several years and at the present is divided into three areas: studies of the electronic structure of the solvated products resulting from the photodissociation of transition metal carbonyl complexes in solution, investigations of the multiphoton dissociation dynamics of gas phase arene chromium tricarbonyl complexes, and use of lanthanide ions as luminescence probes to investigate the coordination of metals in proteins. Our investigations of solvated chromium pentacarbonyl species have successfully utilized time-resolved resonance Raman spectroscopy to measure several of the vibrational frequencies and probe the excited electronic states of these important species. The studies of multiphoton dissociation dynamics have been directed at using atomic fluorescence yields to measure the nascent electronic state distribution of Cr atoms produced in the multiphoton dissociation of a series of n-alkyl substituted arene chromium tricarbonyls. Recently, laser-induced fluorescence measurements of relative populations of non-emitting states revealed a parity selectivity in the dissociation process. Finally, for each of the past five years I have shared a senior thesis student with Arthur Glasfeld, a biochemist at Reed. We have assembled an instrument for measuring the laser-induced fluorescence lifetimes of lanthanide ions in solution, and we recently used Europium (III) as a luminescence probe to investigate the nature of one of the metal binding sites in D-xylose isomerase. This study confirmed that the metal binding capacity of the Mg-2 site is not dramatically altered in a mutant form of this enzyme, and that the coordination geometry has been maintained; this information was important to using this mutant to explore the role of the metal site in substrate binding and isomerization.
Current Research Grant Support
"Multiphoton Dissociation of Chromium Carbonyl Complexes," $25,000., ACS-PRF Type B Grant, September1, 1997 - August 31, 1999.
Names of Reed student authors are in bold.
1. "Role of the Divalent Metal Ion in Sugar Binding, Ring Opening, and Isomerization by D-Xylose Isomerase: Replacement of a Catalytic Metal by an Amino Acid," Karen N. Allen, Arnon Lavie, Arthur Glasfeld, Timothy N. Tanada, Daniel P. Gerrity, Steven C. Carlson, Gregory K. Farber, Gregory A. Petsko, and Dagmar Ringe, Biochemistry, 33 1488 (1994).
2. "Parity State Selectivity in the Multiphoton Dissociation of Arene Chromium Tricarbonyls," Daniel P. Gerrity and Steve Funk, in Laser Chemistry of Organometallics; J. Chaiken, Ed.; ACS Books: Washington, D.C. 1993, ACS Symposium Series 530; pp 26-48.
3. "UV Resonance Raman Spectra of Group 6 Transition Metal Carbonyls: Evidence of Jahn-Teller Distortion in the Excited States of the Lowest Allowed CT Transitions," David Adelman and Daniel P. Gerrity, J.Phys. Chem., 94 4055 (1990).
4. "Measurement of Absolute Partial Reaction Cross Sections for the Hydrogen Exchange Reactions," Harold B. Levene, David L. Phillips, Jong-Chen Nieh, Daniel P. Gerrity and James J. Valentini, Chem. Phys. Letters, 143 317 (1988).
5. "CARS Spectroscopy of O2 (1Deltag ) from the Hartley Band Photodissociation of O3 : Dynamics of the Dissociation," James J. Valentini, Daniel P. Gerrity, David L. Phillips, Jong-Chen Nieh, and Kevin D. Tabor, J. Chem. Phys., 87 6745 (1987).
6. "Far Ultraviolet Laser Resonance Raman Studies of Electronic Excitations," Bruce Hudson, Peter B. Kelly, Lawrence D. Ziegler, Russell A. Desiderio, Daniel P. Gerrity, Wayne Hess and Ron Bates in "Advances in Laser Spectroscopy," Vol. III, p. 1, edited by B. A. Garetz and J. R. Lombardi, (John Wiley and Sons Ltd., 1986).
7. "Resonance Raman Spectroscopy of Butadiene: Demonstration of a 21Ag State Below the 11BuV State," Richard R. Chadwick, Daniel P. Gerrity, and Bruce S. Hudson, Chem. Phys. Letters, 115 24 (1985).
8. "Resonance Raman Scattering in the 1 Ag+ --> 1B2 (1Au+) Transition of CS2," R. A. Desiderio, D. P. Gerrity, and B.S. Hudson, Chem. Phys. Letters, 115 29 (1985).
9. "Ultraviolet Resonance Raman Spectroscopy of Benzene Vapor with 220 nm to 184 nm Excitation," Daniel P. Gerrity, Lawrence D. Ziegler, Peter B. Kelly, Russell A. Desiderio and Bruce Hudson, J. Chem. Phys., 83 3209 (1985).
10. "Dynamics of the H + D2 --> HD + D Reaction: Dependence of the Product Quantum State Distributions on Collision Energy from 0.98 eV to 1.3 eV," Daniel P. Gerrity and James J. Valentini, J. Chem. Phys., 82 1323 (1985).
11. "Dynamics of Inelastic H + D2 Collisions: Product Quantum State Distributions at 1.1 and 1.3 eV Collision Energy," Daniel P. Gerrity and James J. Valentini, J. Chem. Phys., 83 2207 (1985).
12. "Experimental Study of the Dynamics of the H + D2 --> HD + D Reaction at Collision Energies of 0.55 eV and 1.30 eV," D. P. Gerrity and J. J. Valentini, J. Chem. Phys., 81 1298 (1984).
13. "Experimental Determination of Product Quantum State Distributions in the H + D2 --> HD + D Reaction," Daniel P. Gerrity and James J. Valentini, J. Chem. Phys., 79 5202 (1983).
14. "UV-Vis Multiphoton Dissociation of Cr(CO)6 : Experimental Evidence for Statistical Fragmentation," Daniel P. Gerrity, Lewis J. Rothberg, and V. Vaida, J. Phys. Chem., 87 2222 (1983).
15. "Evidence of a State Dependent Depletion Process in the Two Photon Fluorescence Excitation Spectra of Saturated Amines," A. M. Halpern, D. P. Gerrity, L. J. Rothberg, and V. Vaida, J. Chem. Phys., 76 102 (1982).
16. "Effects of Non-Resonant Ionization on Multiphoton Ionization Lineshapes," Lewis J. Rothberg, Daniel P. Gerrity, and Veronica Vaida, J. Chem. Phys., 75 4403 (1981).
17. "Multiphoton Ionization of Metal Atoms Produced in the Photodissociation of Group VI Hexacarbonyls," D. P. Gerrity, L. J. Rothberg, and V. Vaida, Chem. Phys. Lett., 74 1 (1980).
18. "Gas Phase Multiphoton Photodissociation of Mn2 (CO)10 : The Effect of Collisions on Photofragmentation," L. J. Rothberg, D. P. Gerrity, and V. Vaida, J. Chem. Phys., 74 2218 (1981).
19. "Electronic Spectra of Butadiene and its Methyl Derivatives: A Multiphoton Ionization Study," L. J. Rothberg, D. P. Gerrity, and V. Vaida, J. Chem. Phys., 73 5508 (1980).
20. "Electronic Spectrum of Furan from 2200 to 1950 Å," J. L. Roebber, D. P. Gerrity, R. Hemley, and V. Vaida, Chem. Phys. Lett., 75 104 (1980).
21. "Structural Studies of Precursor and Partially Oxidized Conducting Complexes. 9. The New One-Dimensional Tetracyanoplatinates,
M 2 [Pt(CN) 4 ](FHF)0.39.xH2O (M = Rb, CS), and a New Lower Limit for the Platinum - Platinum Separation (2.80 Å)," Jack M. Williams, Daniel P. Gerrity and Arthur J. Schultz, J. Am. Chem. Soc., 99 668 (1977).
22. "Structural Studies of Precursor and Partially Oxidized Conducting Complexes. XVI. An X-Ray Diffraction Study of Dicesium Tetracyanoplatinate Bifluoride,
Cs2 [Pt(CN)4 ](FHF)0.39 ," Arthur J. Schultz, Daniel P. Gerrity, and Jack M. Williams, Acta. Cryst. B34 1673 (1978).
Other Professional Publications
"Raman Spectroscopy, Time-Resolved Fluorescence, and More for Under $25K," Daniel P. Gerrity, Council on Undergraduate Research Newsletter, IX 60 (April, 1989).