Michigan State University

What you'll study

This PhD combines advanced coursework with intensive original research. Typical research areas include quantum chemical methods for excited states, non‑adiabatic dynamics, ultrafast spectroscopy, nonlinear and quantum optics, light–matter coupling in condensed phases, and photonic materials for quantum technologies. Students learn both theoretical and experimental approaches: high‑level electronic structure and quantum dynamics, laser spectroscopy and ultrafast techniques, quantum optics and cavity QED, and computational photonics.

• Core coursework: advanced quantum mechanics/quantum chemistry, statistical mechanics, and spectroscopy.
• Specialist courses: excited‑state electronic structure methods, time‑dependent density functional theory, nonadiabatic dynamics, ultrafast spectroscopy, nonlinear optics, and quantum information science.
• Practical training: laboratory rotations (for students entering without a specific advisor), experimental optics labs, instrument development, and high‑performance computing for electronic structure.
• Research components: selection of a research advisor, qualifying/doctoral candidacy examination, original dissertation research, and presentation of results in seminars and peer‑reviewed publications.
• Professional development: teaching or mentoring experience, scientific communication, and opportunities for interdisciplinary collaboration with physics, engineering and materials science groups.

Entry requirements

Applicants are expected to hold a strong undergraduate degree in chemistry, physics, materials science, or a closely related field; a completed master’s degree in a relevant discipline is an advantage but not always required. Successful applicants typically demonstrate excellent preparation in physical chemistry and quantum mechanics, substantial research experience (e.g. undergraduate or master’s research projects), and strong letters of recommendation.

• Academic transcripts showing relevant coursework in physical/quantum chemistry and mathematics.
• Research experience and a clear research statement indicating fit with faculty working in optics and quantum chemistry.
• Three or more academic references from supervisors or faculty familiar with the applicant’s research and academic performance.
• Proof of English language proficiency where applicable (e.g. TOEFL or IELTS) for international applicants, unless otherwise exempted.
• Additional materials commonly requested: CV, publications or technical reports when available. Standardised tests may be optional—applicants should consult the department for current testing policy.

Career prospects

Graduates of this programme go on to careers across academia, national laboratories and industry. Typical paths include postdoctoral research and faculty positions in chemistry, physics or materials science; research scientist roles at national and international research centres; and R&D positions in industries such as photonics, semiconductor and quantum technology companies, chemical and materials firms, and spectroscopy instrumentation vendors.

• Academic research and teaching (postdoctoral fellowships, tenure‑track roles)
• National and government laboratories working on quantum information, photonics and computational chemistry
• Industry R&D in quantum hardware, optical communications, sensors and spectroscopy
• Applied computational roles, modelling excited‑state processes and materials design
• Technical roles in instrumentation, product development and technology translation

Why study at Michigan State University

Michigan State University offers a chemistry doctoral programme with strong strengths in physical chemistry and interdisciplinary collaboration. The Department of Chemistry provides access to faculty working across experimental optics, spectroscopy and theoretical quantum chemistry, and students benefit from close interactions with neighbouring departments such as Physics and Engineering. Research facilities include shared laser laboratories, advanced spectroscopy instrumentation, and campus high‑performance computing resources.

MSU emphasises mentor‑directed research supported by teaching and research assistantships and internal fellowships, along with opportunities to collaborate with regional and national research partners. The programme’s interdisciplinary environment and experienced faculty make it a strong choice for students aiming to advance fundamental and applied knowledge at the interface of optics and quantum chemistry.