Paul S. Wagenknecht Faculty and Staff Chemistry Furman University

Paul Wagenknecht grew up in Clearwater, Florida and obtained his bachelor of science in chemistry from Furman University in 1986. He was awarded a graduate fellowship from the National Science Foundation to attend Stanford University, and received his Ph.D. in Inorganic Chemistry in 1991.

Following postdoctoral studies at Colorado State University, he accepted a one-year adjunct teaching position at Occidental College in Los Angeles, California before beginning a tenure track position at San Jose State University in 1996. In 2004, he moved back to his alma mater, Furman University. Over his career, he has secured more than $2 million in external funding for support of undergraduate research in his group and department from agencies including the National Science Foundation, National Institutes of Health, William F. Keck Foundation, Arnold and Mabel Beckman Foundation, Research Corporation, Camille and Henry Dreyfus Foundation, and American Chemical Society.

Since beginning his independent career with undergraduate researchers, he has published more than 25 peer-reviewed research articles (mostly with student coauthors) and two patents. When not in the classroom or laboratory, he enjoys competing on the tennis courts and BBQ circuit (as AlQuemy BBQ).​​​​​​

Name Title Description


Seminar in Chemistry

Seminars presented based on current literature. Presentations include articles detailing the application of chemical principles and techniques to the natural environment. Surveys of assigned journals are presented individually; more detailed presentations are made by small groups working as teams. Topics include: coverage of recent important developments, global awareness of the application of chemistry to the natural world, experience in making scientific presentations, and encouragement of good literature reading habits.


Foundations of Chemistry

Introduction to the principles of chemistry. Topics include: atomic and molecular structure and chemical bonding, stoichiometry, properties of the states of matter, and energetics of chemical reactions with emphasis on problem solving, conceptual understanding, and analytical reasoning. Laboratory focuses on quantitative measurements and interpretation of data.


Inorganic Chemistry

Introduction to inorganic topics, beginning with the Periodic Table. Topics include: main-group chemistry, nuclear chemistry, transition metal chemistry, and solid state chemistry will be explored in more depth. Connections between theory and observation will be highlighted


Experimental Techniques

Laboratory exercises involving multi-step synthesis, purification, and analysis of both organic and inorganic compounds. Use of modern chemical instrumentation, utilization of the chemical literature, and the oral and written presentation of experimental data are requirements.


Advanced Research Methods

An exploration of the techniques and protocols of modern laboratory research, including chemical safety, information fluency, and advanced instrumentation methods. Additional topics include scientific ethics, data analysis, and individualized instruction on project specific techniques.


Adv Tpcs in Inorganic Chem

Investigation of the relationship between structure and reactivity in inorganic chemistry. Advanced topics include: structural types, bonding theories, reaction types, energetics, and spectroscopy as applied to transition metal complexes, organometallic complexes, solid state materials, and bioinorganic species.


Topics in Chemistry

Topics important in various fields of modern chemistry designed as a tutorial to meet the special needs of individual students.


Graduate Seminar in Chemistry

Students present seminars based on current literature. Surveys of assigned journals are presented individually; more detailed presentations are made by small groups.



Original laboratory research



Master's thesis

Adventures in Transition Metal Photophysics

State-of-the-art phosphorescent materials are integral to devices such as flat screen displays and modern energy efficient lighting. Such materials efficiently convert electricity to light. The reverse process, the conversion of light into electricity, is perhaps even more technologically desirable. Our group studies complexes of metals such as iron, titanium, ruthenium, chromium, iridium, and rhodium as possible materials to improve these technologies.

MMCT in donor-π-bridge-acceptor complexes

Charge-transfer (CT) excited states where charge is separated over a long distance are interesting from a fundamental standpoint and for applications involving solar energy conversion and photocatalysis. Metal-to-metal CT (MMCT) excited states fall into this class and have been exploited for such applications. In particular, photocatalysis involving MMCT excited states in solid state Ti-O-M architectures involving TiIV acceptors oxo-bridged to donors (M) such as FeII, CrIII, and MnII has recently been investigated. Of additional relevance is that ferrocyanide photosensitizes TiO2, with the photosensitization being ascribed to an FeII to TiIV charge transfer. Furthermore, FeII to TiIV charge transfer has been implicated as being responsible for the color observed in minerals such as blue sapphire (a corundum based gemstone) and blue kyanite (an aluminosilicate based gemstone). Our group is interested in molecular examples of FeII to TiIV charge transfer (Figure 1) and is involved in a systematic investigation of such complexes. These investigations involve collaborations with research groups outside of Furman who are experts in computational chemistry and ultrafast spectroscopy.
Wagenknecht research, figure 1 Figure 1. Adjusting the electron density at TiIV tunes the low energy absorption in a manner consistent with the assignment of this band as an FeII to TiIV MMCT. The MMCT is solvatochromic, shifting to lower energy with increased solvent polarizability. The reduction potential suggests the transient TiIII species is appropriate for electron injection into TiO2.

Photophysics of complexes with electron deficient alkyne ligands

Many transition metal complexes with alkynyl ligands are investigated for their luminescent properties. Of particular interest is adjusting the electronic properties of the metal/ligands, as this provides for the variation of colors observed in many complexes used in organic light emitting diodes (OLEDs). One common alkynyl ligand used to diminish the electron density at the metal is the pentafluorophenylethynyl ligand (C6F5C≡C). Our group is interested in even more electron deficient alkyne ligands and has turned to the trifluoropropynyl ligand (CF3C≡C). Electronically, this ligand behaves much like the cyano ligand. However, emission from a Rh(III) complex with this ligand, trans-[Rh(cyclam)(C2CF3)2]+, shows intense metal centered luminescence (Figure 2). We are presently investigating the relative electronic properties of C6F5C≡C and CF3C≡C through spectroscopic, voltammetric, and computational methods.

Wagenknecht research, figure 2
Figure 2. Emission of a RhIII complex with the trifluoropropynyl ligand. The emission is metal centered 3A2g to 1A1g (D4h) phosphorescence with a quantum yield of 0.11. Upon N-H deuteration, the quantum yield increases to 0.24 (24%).

Ph.D., Stanford University
B.S., Furman University

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