University of Tulsa

What you'll study

The programme combines advanced coursework with an extended original research project. Early years typically emphasise core topics such as quantum mechanics for chemists, advanced physical chemistry, spectroscopy and photonics, and statistical mechanics. Students take specialised modules in quantum chemistry methods (electronic structure theory, density functional theory, coupled-cluster techniques), non-linear and ultrafast optics, laser–matter interaction, and quantum dynamics.

• Core coursework: quantum mechanics, advanced thermodynamics and statistical mechanics, and modern spectroscopy.
• Specialist courses: time-dependent quantum chemistry, computational methods for excited states, non-linear optics and photonics, ultrafast spectroscopy and quantum control.
• Practical training: laboratory rotations, laser and optical instrumentation, pulse-shaping and detection techniques, high-performance computing for quantum chemistry.
• Research: an extended thesis project under the supervision of a faculty member, culminating in a doctoral dissertation and public defence.
• Professional development: teaching assistantships, scientific communication, grant writing and collaboration across chemistry, physics and engineering.

Students are expected to progress through a qualifying or candidacy examination after completing required coursework, then devote the majority of their time to independent research. Collaborative projects with the Department of Physics and Engineering are common, reflecting the interdisciplinary nature of optics and quantum chemistry.

Entry requirements

Applicants normally hold a bachelor’s degree with a strong background in chemistry, physics, or a closely related discipline; many incoming students have a master’s degree or equivalent research experience. Selection is based on academic record, coursework in physical chemistry and mathematics, and evidence of research potential.

• Transcripts showing strong performance in relevant undergraduate or graduate courses (physical chemistry, quantum mechanics, mathematics).
• Research experience is highly desirable; applicants should highlight laboratory work, publications, conference presentations or senior projects in optics, spectroscopy or computational chemistry.
• Letters of recommendation from academic or professional referees who can attest to research ability and suitability for doctoral study.
• A statement of purpose describing research interests, potential supervisors or groups at Tulsa, and how the applicant's background prepares them for work in optics and quantum chemistry.
• International applicants must satisfy English language requirements and provide certified academic records; any additional test requirements or waivers are determined by the admissions office.

Career prospects

Graduates leave prepared for careers in academia, national laboratories and industry sectors that use advanced optical technologies and computational quantum methods. Typical roles include:

• Academic research and teaching positions in chemistry, physics or interdisciplinary photonics programmes.
• Research scientist or engineer roles in photonics, telecommunications, semiconductor and materials companies working on lasers, quantum devices and optical metrology.
• Computational chemist or modelling specialist in pharmaceutical, chemical or materials industries applying quantum chemistry to molecular design and spectroscopy.
• Positions in national and government laboratories focusing on quantum information science, sensor development and ultrafast optical technologies.
• Technology transfer, patent science and roles in start-ups developing quantum-enabled devices and photonic systems.

Why study at University of Tulsa

The University of Tulsa provides a supportive, research-intensive environment with small class sizes and close faculty mentorship. The chemistry department encourages interdisciplinary work, offering access to optical laboratories, ultrafast laser systems and high-performance computing resources that are essential for experimental and theoretical work in optics and quantum chemistry.

Students benefit from opportunities to collaborate with nearby physics and engineering researchers, participate in regional and national research networks, and gain hands-on experience through teaching assistantships and laboratory rotations. The department’s emphasis on personalised training helps prepare doctoral candidates for competitive research careers or leadership roles in industry.