Matthew D. Bowman

发表

Approaches for Scale-Up of Microwave-Promoted Reactions

Nicholas E. Leadbeater, Victoria A. Williams, N. Leadbeater, 2008 .

A First Laboratory Utilizing NMR for Undergraduate Education: Characterization of Edible Fats and Oils by Quantitative 13C NMR

C. G. Fry, Heike Hofstetter, H. Hofstetter, 2017 .

Watching microwave-promoted chemistry: reaction monitoring using a digital camera interfaced with a scientific microwave apparatus

T. Barnard, N. Leadbeater, Matthew D. Bowman, 2008 .

Improved small-molecule macroarray platform for the rapid synthesis and discovery of antibacterial chalcones.

B. Weisblum, H. Blackwell, Matthew D. Bowman, 2011, ACS combinatorial science.

Discovery of fluorescent cyanopyridine and deazalumazine dyes using small molecule macroarrays.

H. Blackwell, Matthew D. Bowman, Megan M. Jacobson, 2006, Organic Letters.

Efficient synthesis of small molecule macroarrays: optimization of the macroarray synthesis platform and examination of microwave and conventional heating methods

H. Blackwell, Matthew D. Bowman, Megan M. Jacobson, 2006 .

Scale-Up of Microwave-Promoted Reactions to the Multigram Level Using a Sealed-Vessel Microwave Apparatus

Jason R. Schmink, N. Leadbeater, C. Kormos, 2008 .

Microwave-accelerated SPOT-synthesis on cellulose supports.

Ryan C. Jeske, H. Blackwell, Matthew D. Bowman, 2004, Organic letters.

Rapid identification of antibacterial agents effective against Staphylococcus aureus using small-molecule macroarrays.

H. Blackwell, Matthew D. Bowman, Joseph R. Stringer, 2007, Chemistry & biology.

Ligand-Free Suzuki-Miyaura Coupling Reactions Using an Inexpensive Aqueous Palladium Source: A Synthetic and Computational Exercise for the Undergraduate Organic Chemistry Laboratory

Brian J. Esselman, N. Leadbeater, N. Hill, 2014 .

Responses to Changing Needs in U.S. Doctoral Education.

Brian P. Coppola, Samuel Pazicni, J. I. Seeman, 2004 .