Chemistry and Biochemistry

James E. Patterson

James Patterson

Office: C310 BNSN
Office Phone: 801-422-1481
Lab Room: C355 BNSN
Lab Phone: 801-422-1518
Office Hours


BS, Brigham Young University (1996)

MS, Brigham Young University (1998)

PhD, University of Illinois at Urbana-Champaign (2004)

Postdoctoral Research, Institute for Shock Physics, Washington State University (2004-2007)


The Patterson Research Lab focuses on establishing links between molecular structure and function in interfacial systems.

Many phenomena occur primarily or exclusively at interfaces. These include adhesion, friction, lubrication, chromatographic separations, catalysis and many biological processes. To trace connections between the above and molecular structure, Patterson reseachers use a non-linear spectroscopy technique known as vibrationally resonant sum-frequency generation (VR-SFG). This technique allows chemists to probe molecules at interfaces without interfering signal from molecules in the bulk. It also allows chemists to determine the orientation of molecules at these interfaces. The Patterson Lab Group is currently studying two types of systems: solid-solid interfaces relevant to adhesion and solid-liquid interfaces relevant to chromatography.

The goal of the Patterson Lab's first project is to better understand the molecular basis of adhesion or, in less technical terms, what makes things stick. Patterson researchers are using VR-SFG to determine the molecular structure of polymer surfaces and the interface between two polymeric materials. Patterson researchers will also correlate the results of the spectroscopy measurements with mechanical strength tests. This will allow the Patterson Lab to better identify the molecular structures that give strong adhesive bonds. Findings will pave the way for the development of new adhesives designed from molecular considerations. This work is currently being funded by the Air Force Office of Scientific Research.

In the Patterson Lab's second project, students are looking at the molecular basis for chromatographic separations. High performance liquid chromatography (HPLC) is used in many analytical and biomedical fields to separate chemical species, but a molecular level understanding of the fundamental processes is lacking. Patterson researchers are currently studying model HPLC stationary phases under high pressure. Results show that the structure of the interface changes both with pressure and how the samples are stored. The Patterson Lab Group will soon change the composition of the liquid phase to learn more about how those conditions influence retention in HPLC. Results will lead to improved predictions of optimal separation programs which will in turn improve the efficiency of HPLC analysis.

Students in the Patterson Group use a state-of-the-art, ultra-fast laser system to perform the non-linear spectroscopy measurements. Students also prepare and characterize samples using such techniques as polymer spin coating, ellipsometry (in the lab of Dr. Matthew Linford), and silane chemistry. Most importantly, Patterson students study interesting systems that impact many fields of science and engineering.

Additional research areas: Spectroscopy and Materials and Surfaces


Patterson, J. E. (2016). Physical Chemistry for Engineers: Preliminary Edition (449). San Diego, CA: Cognella Academic Publishing.

Averett, S. C., Calchera, A. R., Patterson, J. E. (2015). Polarization and phase characteristics of nonresonant sum-frequency generation response from a silicon(111) surface. Optics Letters, 40(21), 4879-4882.

Sevy, E. T., Patterson, J. E., Asplund, M. C. (2013). Physical Chemistry Laboratory.

Curtis, A. D., Calchera, A. R., Asplund, M. C., Patterson, J. E. (2013). Observation of sub-surface phenyl rings in polystyrene with vibrationally resonant sum-frequency generation. Vibrational Spectroscopy, 68, 71-81.

Quast, A. D., Wilde, N. C., Matthews, S. S., Maughan, S. T., Castle, S. L., Patterson, J. E. (2012). Improved assignment of vibrationalmodes in sum-frequencyspectra in the CH stretch region for surface-bound C18 alkylsilanes. Vibrational Spectroscopy, 61, 17-24.

Calchera, A. R., Curtis, A. D., Patterson, J. E. (2012). Plasma Treatment of Polystyrene Thin Film Affects More Than the Surface. ACS Applied Materials & Interfaces, 4(7), 3493-3499.

Mansfield, E. R., Mansfield, D. S., Patterson, J. E., Knotts, T. A. (2012). Effects of Chain Grafting Positions and Surface Coverage on Conformations of Model RPLC Stationary Phases. Journal of Physical Chemistry, 116(15), 8456-8464.

Quast, A. D., Curtis, A. D., Horn, B. A., Goates, S. R., Patterson, J. E. (2012). Role of Nonresonant Sum-Frequency Generation in the Investigation of Model Liquid Chromatography Systems. Analytical Chemistry, 84(4), 1862-1870.

Curtis, A. D., Asplund, M. C., Patterson, J. E. (2011). Use of Variable Time-Delay Sum-Frequency Generation for Improved Spectroscopic Analysis. Journal of Physical Chemistry, 115(39), 19303-19310.

Quast, A. D., Zhang, F., Linford, M. R., Patterson, J. E. (2011). Back-Surface Gold Mirrors for Vibrationally Resonant Sum-Frequency (VR-SFG) Spectroscopy Using 3-Mercaptopropyltrimethoxysilane as an Adhesion Promoter. Applied Spectroscopy, 65(6), 634-641.

Curtis, A. D., Burt, S. R., Calchera, A. R., Patterson, J. E. (2011). Limitations in the Analysis of Vibrational Sum-Frequency Spectra Arising from the Nonresonant Contribution. Journal of Physical Chemistry C, 115, 11550-11559.

Yu, M., Wang, Q., Patterson, J. E., Woolley, A. T. (2011). Multilayer Polymer Microchip Capillary Array Electrophoresis Devices with Integrated On-Chip Labeling for High-Throughput Protein Analysis. Analytical Chemistry, 83(9), 3541-3547.

Curtis, A. D., Reynolds, S. B., Calchera, A. R., Patterson, J. E. (2010). Understanding the Role of Nonresonant Sum-Frequency Generation from Polystyrene Thin Films. Journal of Physical Chemistry Letters, 1(16), 2435-2439.

Dreger, Z. A., Patterson, J. E., Gupta, Y. M. (2008). Static and Shock Compression of RDX Single Crystals: Raman Spectroscopy. Journal of Physics: Conference Series, 121, 042012.

Miao, M., Dreger, Z. A., Patterson, J. E., Gupta, Y. M. (2008). Shock Wave Induced Decomposition of RDX: Quantum Chemistry Calculations. Journal of Physical Chemistry A, 112, 7383-7390.

Patterson, J. E., Dreger, Z. A., Miao, M., Gupta, Y. M. (2008). Shock Wave Induced Decomposition of RDX: Time-Resolved Spectroscopy. Journal of Physical Chemistry A, 112, 7374-7382.

Patterson, J. E., Dreger, Z. A., Gupta, Y. M. (2007). Raman Spectroscopy of RDX Crystals Shocked Along Different Orientations. AIP Conference Proceedings, Shock Compression of Condensed Matter - 2007, 955 (1259-1262): American Institute of Physics.

Patterson, J. E., Dreger, Z. A., Gupta, Y. M. (2007). Shock Wave Induced Phase Transition in RDX Single Crystals. Journal of Physical Chemistry B, 111, 10897-10904.

J.E. Patterson, D.D. Dlott; Ultrafast Shock Compression of Self-Assembled Monolayers: A Molecular Picture. Journal of Physical Chemistry B109, 2005, 5045-5054.

A.S. Lagutchev, J.E. Patterson, W. Huang, D.D. Dlott; Ultrafast Dynamics of Self-Assembled Monolayers under Shock Compression: Effects of Molecular and Substrate Structure. Journal of Physical Chemistry B109, 2005, 5033-5044.

J.E. Patterson, A. Lagutchev, W. Huang, D.D. Dlott; Ultrafast Dynamics of Shock Compression of Molecular Monolayers. Physical Review Letters94(1), 2005, 015501/1-015501/4. (Included in Virtual Journal of Ultrafast Science 4(2), 2005.)


Professional Activities:

Chair, Central Utah Section of the American Chemical Society, 2011