EXPERTS

    • Regents Professor
    • Chemistry
    • Regents ProfessorChemistry
    Frank's research interests are in the areas of materials science and surface chemistry. More recently, he has become interested in polymer recycling. Much of his work has focused on the molecular motion and physical properties of polymers at interfaces. His group has focused efforts on the synthesis and characterization of conducting polymer nanocomposites, room temperature synthesis of composites from emulsion gels, dynamics of coupling agents, superhydrophobic coatings, adhesion, and the physical and tribological behavior of friction materials. He has coauthored over 250 publications (over 140 in primary reviewed journals) in these areas and has supervised 37 Ph.D. and 14 M.S. students, and many visiting scholars/post-doctoral associates, undergraduate and high school students.
    Frank's research interests are in the areas of materials science and surface chemistry. More recently, he has become interested in polymer recycling. Much of his work has focused on the molecular motion and physical properties of polymers at interfaces. His group has focused efforts on the synthesis and characterization of conducting polymer nanocomposites, room temperature synthesis of composites from emulsion gels, dynamics of coupling agents, superhydrophobic coatings, adhesion, and the physical and tribological behavior of friction materials. He has coauthored over 250 publications (over 140 in primary reviewed journals) in these areas and has supervised 37 Ph.D. and 14 M.S. students, and many visiting scholars/post-doctoral associates, undergraduate and high school students.
    • Faculty/Staff
    • Oklahoma State University - Stillwater
    • Chemistry
    Fields of Research
    • Engineering
    • Chemical sciences
    • Macromolecular and materials chemistry
    • Materials engineering
    • Physical sciences
    • Polymers and plastics
    • Regents Professor
    • Chemistry
    • Regents ProfessorChemistry
    Dr. Bunce joined the faculty at Oklahoma State University in Fall 1983. His research interests include mechanistic organic chemistry, the development of new synthetic approaches to heterocyclic compounds, and the synthesis of medicinal agents. For the past 15 years, he has worked on several projects to prepare and develop new anticancer and antibiotic agents. He has trained 7 postdocs, 23 Ph.D. students, 6 M.S. students and 80 undergraduate researchers, and his published work includes over 160 papers and 5 patents. In recognition of his research accomplishments, Dr. Bunce received the Sigma Xi Lectureship Award in 2007, the Oklahoma Chemist of the Year Award in 2009, and the Regents Distinguished Research Award in 2012. Dr. Bunce is an excellent teacher in the classroom and has received the Regents Distinguished Teaching Award in 2011, the Panhellenic and Intrafraternity Council Outstanding A & S Faculty Member in 2011 and the Oklahoma Foundation for Excellence Award in 2013. Dr. Bunce was the undergraduate advisor for the Department of Chemistry from 1990-2014 and was named Outstanding Advisor in the College of Arts and Sciences in 2001 and 2006. Finally, he was named as Regents Professor in 2020.
    Dr. Bunce joined the faculty at Oklahoma State University in Fall 1983. His research interests include mechanistic organic chemistry, the development of new synthetic approaches to heterocyclic compounds, and the synthesis of medicinal agents. For the past 15 years, he has worked on several projects to prepare and develop new anticancer and antibiotic agents. He has trained 7 postdocs, 23 Ph.D. students, 6 M.S. students and 80 undergraduate researchers, and his published work includes over 160 papers and 5 patents. In recognition of his research accomplishments, Dr. Bunce received the Sigma Xi Lectureship Award in 2007, the Oklahoma Chemist of the Year Award in 2009, and the Regents Distinguished Research Award in 2012. Dr. Bunce is an excellent teacher in the classroom and has received the Regents Distinguished Teaching Award in 2011, the Panhellenic and Intrafraternity Council Outstanding A & S Faculty Member in 2011 and the Oklahoma Foundation for Excellence Award in 2013. Dr. Bunce was the undergraduate advisor for the Department of Chemistry from 1990-2014 and was named Outstanding Advisor in the College of Arts and Sciences in 2001 and 2006. Finally, he was named as Regents Professor in 2020.
    • Faculty/Staff
    • Oklahoma State University - Stillwater
    • Chemistry
    Fields of Research
    • Chemical sciences
    • Medicinal and biomolecular chemistry
    • Organic chemistry
    • Pharmacology and pharmaceutical sciences
    • Associate Professor
    • Chemistry
    • Associate ProfessorChemistry

    I have held my current position in the Department of Chemistry at Oklahoma State University since 2014 after moving from the University of California San Diego where I worked as a Staff Scientist at the Center for NMR Spectroscopy and Imaging of Proteins. I graduated from Concordia University with a Bachelor's degree as a Biology major and Chemistry minor. I then attended Kansas State University where I earned a PhD in Biochemistry in the lab of Dr. John Tomich. My research dissertation focused on the channel activity and structures of several channel-forming peptides derived from the human M2 glycine receptor in an effort to develop therapeutics for the treatment of channelopathies such as Cystic Fibrosis. I then moved to the University of California San Diego as a Post Doctoral Scholar in the lab of Dr. Stanley Opella where my studies focused on the structural and dynamic characterization of the membrane viroporin protein p7 from Hepatitis C Virus for the development of anti-HCV drugs.

    Research Interests:

    My lab's current interest is in determining the structure, dynamics and interactions of membrane glycoproteins. Glycoproteins are a large class of proteins, taking part in nearly every biological process. They participate in the immune system as antibodies and as factors in the major histocompatibilty complex interacting with T cells as part of a the adaptive immune response. They are also involved in white blood cell recognition, cell growth, differentiation, cell-cell interactions and protein folding. Glycoproteins are also indicators for various cancers. A large number of important glycoproteins are integral membrane proteins. They can be found in the lipid bilayers that make up the plasma membrane and the membranes of organelles. Two of the proteins that my lab is specifically interested in are Sarcoglycan, involved in maintaining the integrity of muscle cells, and whose malfunction can lead to Muscular Dystrophy, and Syndecan, a protein used as a marker for several cancers including breast and prostate. Nuclear Magnetic Resonance Spectroscopy has been shown recently to be the ideal method for studying large membrane proteins in a native-like lipid environment. In my lab a combination of solution and solid-state NMR is employed to study the effects of glycosylation on structure, dynamics and the interactions of these important proteins. Understanding these properties is an incredibly important component to the development of treatments of human disease involving glycoproteins.

    Keywords: Biochemistry, Chemistry, Nuclear Magnetic Resonance Spectroscopy (NMR), Membrane Proteins, Glycoproteins, Glycosylation, Post-translational Modifications

    I have held my current position in the Department of Chemistry at Oklahoma State University since 2014 after moving from the University of California San Diego where I worked as a Staff Scientist at the Center for NMR Spectroscopy and Imaging of Proteins. I graduated from Concordia University with a Bachelor's degree as a Biology major and Chemistry minor. I then attended Kansas State University where I earned a PhD in Biochemistry in the lab of Dr. John Tomich. My research dissertation focused on the channel activity and structures of several channel-forming peptides derived from the human M2 glycine receptor in an effort to develop therapeutics for the treatment of channelopathies such as Cystic Fibrosis. I then moved to the University of California San Diego as a Post Doctoral Scholar in the lab of Dr. Stanley Opella where my studies focused on the structural and dynamic characterization of the membrane viroporin protein p7 from Hepatitis C Virus for the development of anti-HCV drugs.

    Research Interests:

    My lab's current interest is in determining the structure, dynamics and interactions of membrane glycoproteins. Glycoproteins are a large class of proteins, taking part in nearly every biological process. They participate in the immune system as antibodies and as factors in the major histocompatibilty complex interacting with T cells as part of a the adaptive immune response. They are also involved in white blood cell recognition, cell growth, differentiation, cell-cell interactions and protein folding. Glycoproteins are also indicators for various cancers. A large number of important glycoproteins are integral membrane proteins. They can be found in the lipid bilayers that make up the plasma membrane and the membranes of organelles. Two of the proteins that my lab is specifically interested in are Sarcoglycan, involved in maintaining the integrity of muscle cells, and whose malfunction can lead to Muscular Dystrophy, and Syndecan, a protein used as a marker for several cancers including breast and prostate. Nuclear Magnetic Resonance Spectroscopy has been shown recently to be the ideal method for studying large membrane proteins in a native-like lipid environment. In my lab a combination of solution and solid-state NMR is employed to study the effects of glycosylation on structure, dynamics and the interactions of these important proteins. Understanding these properties is an incredibly important component to the development of treatments of human disease involving glycoproteins.

    Keywords: Biochemistry, Chemistry, Nuclear Magnetic Resonance Spectroscopy (NMR), Membrane Proteins, Glycoproteins, Glycosylation, Post-translational Modifications

    • Faculty/Staff
    • Oklahoma State University - Stillwater
    • Masters or PhD research supervision
    • Collaborative projects
    • Mentoring (long-term)
    • Mentoring (short-term)
    • Chemistry
    Fields of Research
    • Supramolecular chemistry
    • Biochemistry and cell biology
    • Medical biochemistry - proteins and peptides
  • Head
    • Associate Professor
    • Chemistry
    • Associate ProfessorChemistry
    I am a researcher and educator with a specialization in computational chemistry, specifically molecular modeling of condensed phase systems. I am currently an Associate Professor and the Interim Department Chair of Chemistry at Oklahoma State University, the Director of Science for the National Science Foundation funded OAK region high-performance computing initiative, and a member of the NSF ACCESS resource allocation committee.

    Research Interests:

    Research directions in the Fennell lab span molecular force field development, solvation and transfer free energy method development, molecular mechanics calculations of biomolecular diffusion and polymer interfaces, and quantum mechanical calculations of molecular clusters, itemization of intermolecular interactions, and excited state systems. The specific research projects have been and are currently funded under grants from both the National Science Foundation and the National Institutes for Health.
    I am a researcher and educator with a specialization in computational chemistry, specifically molecular modeling of condensed phase systems. I am currently an Associate Professor and the Interim Department Chair of Chemistry at Oklahoma State University, the Director of Science for the National Science Foundation funded OAK region high-performance computing initiative, and a member of the NSF ACCESS resource allocation committee.

    Research Interests:

    Research directions in the Fennell lab span molecular force field development, solvation and transfer free energy method development, molecular mechanics calculations of biomolecular diffusion and polymer interfaces, and quantum mechanical calculations of molecular clusters, itemization of intermolecular interactions, and excited state systems. The specific research projects have been and are currently funded under grants from both the National Science Foundation and the National Institutes for Health.
    • Faculty/Staff
    • Oklahoma State University - Stillwater
    • Chemistry
    • High Performance Computing Center
    Fields of Research
    • Engineering
    • Chemical sciences
    • Medicinal and biomolecular chemistry
    • Physical sciences
    • Theoretical and computational chemistry
    • Assistant Professor
    • Chemistry
    • Assistant ProfessorChemistry
    • Faculty/Staff
    • Oklahoma State University - Stillwater
    • Chemistry
    • Assistant Professor
    • Chemistry
    • Assistant ProfessorChemistry

    Please visit our lab website for more information. 

    Please visit our lab website for more information. 

    • Faculty/Staff
    • Oklahoma State University - Stillwater
    • Collaborative projects
    • Undergraduate research supervision
    • Industry projects
    • German
    • English
    • Chemistry
    Fields of Research
    • Inorganic chemistry
    • Non-metal chemistry
    • Solution chemistry
    • Computational chemistry
    • Organometallic chemistry
    • Professor
    • Chemistry
    • ProfessorChemistry
    • Faculty/Staff
    • Oklahoma State University - Stillwater
    • Chemistry
    Fields of Research
    • Engineering
    • Analytical chemistry
    • Chemical sciences
    • Physical chemistry
    • Professor
    • Chemistry
    • ProfessorChemistry
    Chemical reactions occurring at surfaces play a critical role in the manufacturing of electronic devices, in catalyzing chemical reactions from chemical syntheses and environmental remediation, and in chemical sensing. Our research projects are unified by a common objective to both identify and understand the fundamental chemical reactions at interfaces.

    Research Interests:

    Experimental Surface Chemistry of Semiconductor
    Environmental Chemistry
    Sensors
    Chemical reactions occurring at surfaces play a critical role in the manufacturing of electronic devices, in catalyzing chemical reactions from chemical syntheses and environmental remediation, and in chemical sensing. Our research projects are unified by a common objective to both identify and understand the fundamental chemical reactions at interfaces.

    Research Interests:

    Experimental Surface Chemistry of Semiconductor
    Environmental Chemistry
    Sensors
    • Faculty/Staff
    • Oklahoma State University - Stillwater
    • Chemistry
    Fields of Research
    • Chemical sciences
    • Condensed matter physics
    • Physical chemistry
    • Physical sciences
    • Analytical chemistry
    • Associate Professor
    • Chemistry
    • Associate ProfessorChemistry
    • Faculty/Staff
    • Oklahoma State University - Stillwater
    • Chemistry
    Fields of Research
    • Engineering
    • Biochemistry and cell biology
    • Biological sciences
    • Chemical sciences
    • Physical sciences
    • Assistant Professor
    • Chemistry
    • Assistant ProfessorChemistry

    For information, see: https://millerlab.okstate.edu/

    For information, see: https://millerlab.okstate.edu/

    • Faculty/Staff
    • Oklahoma State University - Stillwater
    • Chemistry
    • Professor
    • Chemistry
    • ProfessorChemistry
    • Faculty/Staff
    • Oklahoma State University - Stillwater
    • Chemistry
    Fields of Research
    • Biochemistry and cell biology
    • Biological sciences
    • Chemical sciences
    • Medical biochemistry and metabolomics
    • Medicinal and biomolecular chemistry
    • Associate Professor
    • Chemistry
    • Associate ProfessorChemistry

    Spencer was born and raised in the small Canadian province of Prince Edward Island. In 2012, he completed his B.Sc. with Honours in Chemistry at the University of Prince Edward Island with a minor in Physics. During his time at UPEI, he worked in the lab of Dr. Brian Wagner, focusing on structure-activity relationships of modified β-cyclodextrins for host-guest chemistry. As an undergraduate, Spencer also spent time at the National Research Council of Canada in Ottawa working under the supervision of Dr. Linda Johnston, where he studied the photo-uncaging of ceramides in supported lipid bilayers. In 2012, Spencer joined the group of Juan (Tito) Scaiano at the University of Ottawa as a Ph.D. student. His research in the Scaiano group focused on developing metal-free alternatives for visible-light photoredox catalysis, developing new mechanistic tools for characterization of photochemically-initiated chain reactions, and using heterogeneous semiconductors to catalyze photoredox transformations. After graduating from uOttawa in 2017, Spencer escaped the cold Canadian winters by joining the lab of Larry Overman at the University of California, Irvine as a NSERC Postdoctoral Fellow. Spencer’s research in the Overman lab focused on utilizing tertiary alcohols as radical precursors for the alkylation of medicinally relevant heterocycles and developing a Lewis acid catalyzed 1,4-radical addition reaction. In 2019, Spencer joined Oklahoma State University as an Assistant Professor and was promoted to Associate Professor in 2026, where he is interested in exploring new reactivity regimes in photoreduction reactions and cobalt catalysis.

    Spencer was born and raised in the small Canadian province of Prince Edward Island. In 2012, he completed his B.Sc. with Honours in Chemistry at the University of Prince Edward Island with a minor in Physics. During his time at UPEI, he worked in the lab of Dr. Brian Wagner, focusing on structure-activity relationships of modified β-cyclodextrins for host-guest chemistry. As an undergraduate, Spencer also spent time at the National Research Council of Canada in Ottawa working under the supervision of Dr. Linda Johnston, where he studied the photo-uncaging of ceramides in supported lipid bilayers. In 2012, Spencer joined the group of Juan (Tito) Scaiano at the University of Ottawa as a Ph.D. student. His research in the Scaiano group focused on developing metal-free alternatives for visible-light photoredox catalysis, developing new mechanistic tools for characterization of photochemically-initiated chain reactions, and using heterogeneous semiconductors to catalyze photoredox transformations. After graduating from uOttawa in 2017, Spencer escaped the cold Canadian winters by joining the lab of Larry Overman at the University of California, Irvine as a NSERC Postdoctoral Fellow. Spencer’s research in the Overman lab focused on utilizing tertiary alcohols as radical precursors for the alkylation of medicinally relevant heterocycles and developing a Lewis acid catalyzed 1,4-radical addition reaction. In 2019, Spencer joined Oklahoma State University as an Assistant Professor and was promoted to Associate Professor in 2026, where he is interested in exploring new reactivity regimes in photoreduction reactions and cobalt catalysis.

    • Faculty/Staff
    • Oklahoma State University - Stillwater
    • Collaborative projects
    • Industry projects
    • Masters or PhD research supervision
    • Mentoring (long-term)
    • Mentoring (short-term)
    • Chemistry
    Fields of Research
    • Photochemistry
    • Organic chemical synthesis
    • Catalysis and mechanisms of reactions
    • Organic chemistry
    • Chemical sciences
    • Physical sciences
    • Associate Professor
    • Chemistry
    • Associate ProfessorChemistry
    • Faculty/Staff
    • Oklahoma State University - Stillwater
    • Collaborative projects
    • English
    • Chemistry
    Fields of Research
    • Astronomical and space sciences
    • Atmospheric sciences
    • Chemical sciences
    • Physical sciences
    • Atmospheric composition, chemistry and processes
    • Physical chemistry
    • Analytical chemistry
    • Colloid and surface chemistry
    • Atmospheric aerosols
    • Powder and particle technology
    • Associate Professor
    • Chemistry
    • Associate ProfessorChemistry
    Chemistry impacts our lives in many aspects ranging from health and water to food and energy. In our group, we are interested in discovering cost-effective, clean, and efficient methods for converting small molecules to useful products. The research in Dr. Tahsini's group is focused on designing first-row d-block metal complexes applicable to CO2 reduction, clean-energy production, light-emission, and chemical catalysis.

    Research Interests:

    Inorganic and organometallic synthesis, chemical catalysis, mechanistic studies,
    Chemistry impacts our lives in many aspects ranging from health and water to food and energy. In our group, we are interested in discovering cost-effective, clean, and efficient methods for converting small molecules to useful products. The research in Dr. Tahsini's group is focused on designing first-row d-block metal complexes applicable to CO2 reduction, clean-energy production, light-emission, and chemical catalysis.

    Research Interests:

    Inorganic and organometallic synthesis, chemical catalysis, mechanistic studies,
    • Faculty/Staff
    • Oklahoma State University - Stillwater
    • Chemistry
    Fields of Research
    • Chemical sciences
    • Inorganic chemistry
    • Physical chemistry
    • Organometallic chemistry
    • Catalysis and mechanisms of reactions
    • Professor
    • Chemistry
    • ProfessorChemistry
    Yolanda Vasquez is an Associate Professor in the Department of Chemistry at Oklahoma State University in Stillwater. Her research interests include nanoscale materials, surface science, drug delivery, catalysis, materials science, and biointerfaces. She holds a B.S. in Chemistry from the University of Texas at El Paso and a Ph.D. in Inorganic Chemistry from Texas A&M University. Dr. Vasquez received the Mary Fieser Fellowship during her postdoctoral work at Harvard University.

    Research Interests:

    One of her research directions focuses on developing binary and ternary nanoparticles using ion-exchange reactions between metal-oxide, metal-sulfide, and metal-phosphide nanoparticles. For instance, her team has used ion-exchange reactions to convert zinc oxide to zinc sulfide, and β-FeOOH to magnetite and pyrite. They have also demonstrated metal phosphide-to-metal sulfide conversions between zinc phosphide and zinc sulfide. Her group collaborates with Dr. Kaan Kalkaan to evaluate iron phosphide and iron sulfide nanomaterials as catalysts for the hydrogen evolution reaction.

    Another research direction includes the development of gold nanoparticles as drug-delivery vehicles to treat rheumatoid arthritis, an autoimmune disease with no cure that affects approximately 1% of the world's populace. Her team is working with Prof. Weaver to develop the chemistry to attach drug molecules to the surface of the gold nanoparticles. Her group is evaluating the efficacy of these nanocarriers against in-vitro models of inflammation.
    Yolanda Vasquez is an Associate Professor in the Department of Chemistry at Oklahoma State University in Stillwater. Her research interests include nanoscale materials, surface science, drug delivery, catalysis, materials science, and biointerfaces. She holds a B.S. in Chemistry from the University of Texas at El Paso and a Ph.D. in Inorganic Chemistry from Texas A&M University. Dr. Vasquez received the Mary Fieser Fellowship during her postdoctoral work at Harvard University.

    Research Interests:

    One of her research directions focuses on developing binary and ternary nanoparticles using ion-exchange reactions between metal-oxide, metal-sulfide, and metal-phosphide nanoparticles. For instance, her team has used ion-exchange reactions to convert zinc oxide to zinc sulfide, and β-FeOOH to magnetite and pyrite. They have also demonstrated metal phosphide-to-metal sulfide conversions between zinc phosphide and zinc sulfide. Her group collaborates with Dr. Kaan Kalkaan to evaluate iron phosphide and iron sulfide nanomaterials as catalysts for the hydrogen evolution reaction.

    Another research direction includes the development of gold nanoparticles as drug-delivery vehicles to treat rheumatoid arthritis, an autoimmune disease with no cure that affects approximately 1% of the world's populace. Her team is working with Prof. Weaver to develop the chemistry to attach drug molecules to the surface of the gold nanoparticles. Her group is evaluating the efficacy of these nanocarriers against in-vitro models of inflammation.
    • Faculty/Staff
    • Oklahoma State University - Stillwater
    • English
    • Spanish - Latin American
    • French
    • Chemistry
    Fields of Research
    • Chemical sciences
    • Inorganic chemistry
    • Functional materials
    • Nanochemistry
    • Colloid and surface chemistry
    • Macromolecular and materials chemistry
    • Professor
    • Chemistry
    • ProfessorChemistry
    • Faculty/Staff
    • Oklahoma State University - Stillwater
    • Collaborative projects
    • Industry projects
    • Masters or PhD research supervision
    • Mentoring (long-term)
    • Media inquiries
    • Chemistry
    • Biobased Products & Energy Center
    Fields of Research
    • Chemical sciences
    • Medicinal and biomolecular chemistry
    • Organic chemistry
    • Organic chemical synthesis
    • Carbon sequestration science
    • Photochemistry
    • Surface water quality processes and contaminated sediment assessment
    • Water treatment processes
    • Catalysis and mechanisms of reactions
    • Agrochemicals and biocides
    • Chemical and thermal processes in energy and combustion
    • Professor
    • Chemistry
    • ProfessorChemistry
    • Faculty/Staff
    • Oklahoma State University - Stillwater
    • Chemistry
    Fields of Research
    • Chemical sciences
    • Inorganic chemistry
    • Organic chemistry
    • Physical chemistry

Department contact

  • 405-744-5920
  • 107 Physical Science, Stillwater, Oklahoma, 74078, United States