University of Mississippi

What you'll study

The programme combines advanced coursework, hands-on laboratory training and an independent research project leading to a doctoral dissertation. Students study foundational and specialised topics that typically include:

• Quantum Chemistry and Electronic Structure: many-body methods, density functional theory, excited-state methods and quantum dynamics for molecular systems.
• Physical and Nonlinear Optics: laser–matter interaction, nonlinear optical phenomena, ultrafast pulse generation and control, and photonics.
• Spectroscopy and Ultrafast Dynamics: time-resolved spectroscopy, transient absorption, two-dimensional spectroscopies and techniques for probing femtosecond–picosecond processes.
• Computational Methods: computational chemistry software, high-performance computing, molecular dynamics and quantum dynamics simulations.
• Experimental Techniques and Instrumentation: laser systems, optics lab methods, detector technologies and experimental design for optical measurements.
• Professional and Research Skills: graduate seminars, teaching or assistantship experience, scientific communication and ethics.

Programme structure generally includes initial coursework and seminars, qualifying examinations or equivalent assessments, selection of a research advisor, sustained dissertation research and publication of original work. Students normally engage in collaborative research across chemistry, physics and engineering laboratories and participate in regular group meetings and departmental seminars.

Entry requirements

Applicants are expected to hold a bachelor’s degree in chemistry, physics, chemical engineering or a closely related field; a master’s degree with research experience is often advantageous. Typical admissions criteria include:

• Academic record: a strong undergraduate GPA in relevant science and mathematics courses; successful applicants commonly have coursework in physical chemistry, quantum mechanics and advanced mathematics.
• Research experience: prior laboratory or computational research, demonstrated by a statement of research interests and, where possible, a research thesis or publications.
• Application materials: a CV, a personal statement outlining research goals, three letters of recommendation from academic or research supervisors, and official transcripts.
• Standardised tests and language proficiency: check the department for current policies on GRE scores; international applicants must demonstrate English proficiency through recognised tests unless exempted under the university’s guidelines.
• Fit with faculty expertise: applicants are strongly encouraged to review faculty research interests and contact potential advisors to discuss alignment with ongoing projects.

Career prospects

Graduates from this programme are prepared for a broad range of careers that leverage expertise in optics, spectroscopy and quantum chemistry. Typical paths include:

• Academic faculty positions and postdoctoral research in chemistry, physics and interdisciplinary science departments.
• Research scientist roles at national laboratories working on photonics, quantum information science, materials for optics and spectroscopy.
• R&D positions in industry sectors such as photonics and laser manufacturers, chemical and pharmaceutical companies, materials science firms, and instrumentation companies.
• Computational scientist or modelling roles in chemical informatics, software companies and high-performance computing centres.
• Scientific consulting, patent chemistry and technical leadership roles where deep technical knowledge of light–matter interactions and quantum chemistry is required.

Why study at University of Mississippi

The University of Mississippi’s Department of Chemistry and Biochemistry offers a research-focused environment with faculty whose expertise spans both experimental optics and theoretical quantum chemistry. Students benefit from access to modern optical and spectroscopy laboratories, laser instrumentation and high-performance computing resources that support advanced simulation and data analysis.

Interdisciplinary collaboration is encouraged through strong links with physics and engineering groups, providing opportunities to work on projects that range from fundamental studies of ultrafast dynamics to applied photonics and materials design. Graduate students receive mentorship through regular seminars, research group meetings and teaching or instructional opportunities that prepare them for diverse careers. Prospective students who prioritise a balance of experimental training and computational theory will find the programme structured to develop both independent investigators and collaborative researchers.