Department of Chemistry
Oregon State University

Home · Faculty · Graduate · Undergraduate · Seminars · Courses · Department · Services · Alumni · Contact


James D. White Organic Chemistry

White

Distinquished Professor - Emeritus

Education: B.A. Cambridge University (1959); M.Sc. University of British Columbia (1961); Ph.D. Massachusetts Institute of Technology (1965).

Awards: Devon County Scholarship, Cambridge University (1956-1959); Cabot Solar Energy Fellowship, M.I.T. (1962-1963); National Institutes of Health Predoctoral Fellowship, M.I.T. (1964-1965); Eli Lilly Grant Award (1968-1969); National Institutes of Health Research Career Development Award (1976-1981); Sigma Xi Research Award, Oregon State University Chapter (1981); Japan Society for the Promotion of Science Fellowship (1983); Milton Harris Award for Basic Research, Oregon State University (1987); Guggenheim Fellowship (1988-1989); Sc.D., Cambridge University (1995); F. A. Gilfillan Memorial Award, Oregon State University (1996); Centenary Medal, Royal Society of Chemistry, U.K. (1999); Wyeth-Ayerst Research Award, Columbia University (2000); Arthur C. Cope Senior Scholar Award, American Chemical Society (2003); Oregon Health Science University Foundation Discovery Award (2004); Oregon Outstanding Scientist Award (2006).

Email: james.white@oregonstate.edu
Office: GILB 341
Phone: (541) 737-2173
Fax: (541) 737-2660

Research Group Website:
http://www.chemistry.oregonstate.edu/White.htm

Organic and Bioorganic Website:
http://www.chemistry.oregonstate.edu/organic/


Research Interests

My research program blends studies of synthetic methods with the total synthesis of natural products and other complex molecules.  The goal of our work is to develop new strategies in synthesis and then apply them to the elaboration of targets where particular structural features present a significant challenge.

The synthesis of complex, highly functionalized structures often requires new methodology, and a substantial part of my research is devoted to finding new reactions and improving old ones.  I am particularly interested in devising better ways to secure stereochemistry in densely functionalized structural environments, such as that present in the perimeter of certain macrolides, and for this purpose we are developing new chiral reagents which should facilitate asymmetric synthesis of subunits of these structures.  In addition, we seek novel ways to exploit radical chemistry, photochemistry, and enzymes in the synthesis of specific structural motifs found in natural products.

In designing synthetic routes to complex molecules, the plan often incorporates a key step which plays a pivotal role in establishing the molecular framework.  This central reaction may be one patterned after the presumed biogenesis of the compound, or it may be one intended to test the efficiency of a particular bond construction, ring forming process, skeletal rearrangement, etc.  These exercises in synthesis usually have a specific target in mind, but the conciseness and novelty of the route to our objectives is always considered at least as important as reaching the goal.


Representative Recent Publications