Home / Millard Alexander

Millard Alexander

Distinguished University Professor

Education

  • Harvard College, A. B. 1964, Magna Cum Laude
  • Université de Paris-Sud, Ph. D., 1967, Orsay, France, 1967, With High Distinction
  • Harvard University, Research Fellow, 1967-1971

Professional Experience

  • University of Maryland, Assistant Professor, 1971-1975
  • University of Maryland, Associate Professor, 1975-1979
  • University of Maryland, Professor, 1979-1999
  • 1997 Co-chair, Gordon Conference on Molecular Energy Transfer
  • 1997-1998 Dr. Lee’s Research Fellowship, Christ Church, Oxford University, UK
  • 1997-1998 John Simon Guggenheim Memorial Fellowship.
  • 2004 Co-organizer, Symposium on Intermolecular Interactions and Reactions involving Ions and Open-Shell Systems, ACS Nat’l Meeting, Anaheim, CA.
  • 2005 Co-chair, VIII Int’l Workshop on Quantum Reactive Scattering, CA.
  • 2008 Chair, Telluride Winter Workshop on “New Challenges for Theory in Chemical Dynamics.”
  • 2008 Member, Board of Directors, Telluride Science Research Center.

Research Interests

Theoretical study of inelastic and reactive molecular collisions, particularly those involving free radicals; the photofragmentation of small molecules; and the structure and energetics of weakly bound complexes involving open-shell species
Understanding the Chemical Universe: Study Combining Experiment and Theory Affirms Key Premise of Quantum Chemistry

Major Recognitions and Honors

  • NSF Predoctoral Fellow, 1964-1967 Outstanding Young Teacher Award, D.C. Institute of Chemists, 1977
  • Elected Fellow, American Physical Society, 1984.
  • Alexander von Humboldt Foundation, Senior US Scientist Award, 1989
  • Excellence in Teaching Award, University of Maryland, 1992
  • Contribution to Science Award, Sigma Xi, 1993 Hillebrand Award, American Chemical Society, 1996
  • Dr. Lee’s Visiting Research Fellowship, Christ Church, Oxford, UK, 1997
  • John Simon Guggenheim Memorial Fellowship, 1997
  • Kirwan Faculty Research and Scholarship Prize, University of Maryland, 1999

Alexander’s work has provided a framework for the understanding of non-adiabatic effects in molecular collisions, in weakly bound complexes and in molecular photodissociation. By combining state-of-the art techniques in ab initio quantum chemistry and new methods in quantum collision theory, he has pushed forward the frontier in the understanding of how electronic and nuclear motion are coupled in elementary inelastic and reactive collisions.

Alexander’s earlier work on inelastic scattering of open-shell molecules enabled the understanding of a wide variety of subsequent experimental studies on these systems. In the same way, his recent work on non-adiabatic effects in the paradigm F+H2, Cl+H2, and O+H2 reactions has transformed our understanding of a wealth of experimental work on these elementary reactions. The figure below illustrates the comparison between differential cross sections for the reaction of F/F* with D2 predicted by Alexander’s calculations and by crossed molecular-beam scattering studies by Yang and co-workers in Dalian (CN). 1

The impact of Alexander’s work on the field of chemical dynamics is witnessed by his co-authorship of one paper in Physical Review Letters 2 and four papers in Science since 2001. 1, 3-5 This research was also the subject of two accompanying Science perspective articles. 6, 7 The overall relevance to the broader physics and chemistry communities has been underlined by the appearance of general interest reports of Alexander’s work in the professional journals Physics Today, 8 World of Chemistry, 9 and Chemical and Engineering News. 10

1. L. Che, Z. Ren, X. Wang, W. Dong, D. Dai, X. Wang, D. H. Zhang, X. Yang, G. Li, H.-J. Werner, F. Lique, and M. H. Alexander, Science 317, 1061 (2007).

2. N. Balucani, D. Skouteris, L. Cartechini, G. Capozza, E. Segoloni, P. Casavecchia, M. H. Alexander, G. Capecchi, and H.-J. Werner, Phys. Rev. Lett. 91, 013201 (4 pages) (2003).

3. H. Kohguchi, T. Suzuki, and M. H. Alexander, Science 294, 832 (2001).

4. M. H. Alexander, G. Capecchi, and H.-J. Werner, Science 296, 715 (2002).

5. E. Garand, J. Zhou, D. E. Manolopoulos, M. H. Alexander, and D. M. Neumark, Science 319, 72 (2008).

6. D. E. Manolopoulos, Science 296, 664 (2002).

7. J. M. Bowman, Science 319, 40 (2008).

8. C. Day, Phys. Today 55, 13 (2002).

9. S. Hadlington, Chem. World 5, http://www.rsc.org/chemistryworld/News/2008/January/03010802.asp# (2008).

10. J. Kemsley, Chem. Eng. News 86, 29 (2008).(301) 405-1823

Print Friendly