University of Delaware

What you'll study

This degree integrates graduate-level coursework with hands-on laboratory research. Core topics typically include quantum mechanics for chemists, advanced physical chemistry, molecular and electronic spectroscopy, and statistical mechanics. Specialist modules cover optics and photonics, laser spectroscopy, nonlinear optics, ultrafast dynamics, and quantum chemistry methods (including ab initio and density functional techniques).

• Advanced Quantum Chemistry: electronic structure methods, excited states and correlation techniques.
• Optics and Photonics: wave optics, laser physics, optical instrumentation and nonlinear processes.
• Spectroscopy and Dynamics: time-resolved spectroscopy, vibrational and electronic spectroscopies, ultrafast methods.
• Computational Methods: quantum chemical calculations, simulation of spectra, and modelling of light–matter interactions.
• Laboratory Research: extended research project or thesis in a faculty laboratory, with training in experimental or computational techniques.
• Seminars and Journal Club: regular research seminars, student presentations and critical literature analysis.

The programme is typically completed through a combination of taught modules and a substantial research thesis. Students may also undertake shorter research rotations in different research groups before selecting a dissertation advisor.

Entry requirements

Applicants should hold a bachelor's degree in chemistry, physics, materials science or a closely related discipline and demonstrate solid preparation in physical chemistry, calculus and introductory quantum mechanics. Typical application materials include:

• Official transcripts from all post-secondary institutions attended.
• Two to three letters of recommendation from academic or professional referees who can speak to research potential.
• A personal statement outlining research interests and reasons for choosing the programme.
• A curriculum vitae or résumé summarising laboratory experience and relevant skills.
• Proof of English language proficiency for applicants whose first language is not English (accepted tests and score requirements are set by the university).

The programme may expect prior laboratory experience and familiarity with basic computational tools; some applicants with strong quantitative backgrounds but limited chemistry coursework may be considered on a case-by-case basis. Check the department for guidance on recommended preparatory coursework. Standardised tests may be optional or used selectively—consult the department for current policy.

Career prospects

Graduates acquire skills applicable to both experimental and theoretical roles. Common career paths include:

• Research scientist positions in industrial R&D (photonics, materials, chemical and pharmaceutical companies).
• Roles in national laboratories and government research agencies, working on spectroscopy, quantum materials and sensing technologies.
• Technical positions in the emerging quantum technology sector, including quantum sensing and computing firms.
• Continuation to doctoral study (PhD) in chemistry, physics or engineering for careers in academic research and teaching.
• Analytical and instrumentation roles in quality control, spectroscopy service and contract research organisations.

The combination of experimental optics, spectroscopy and computational quantum chemistry prepares graduates for interdisciplinary teams tackling problems in energy, materials, photonics and molecular science.

Why study at University of Delaware

The University of Delaware offers an environment with active research groups working at the intersection of physical chemistry, optics and quantum science. The chemistry department provides access to modern spectroscopy and laser laboratories, high-performance computing resources for quantum chemical modelling, and regular seminar programmes that expose students to contemporary research.

Students benefit from interdisciplinary collaboration opportunities with neighbouring departments such as physics and engineering, and from the university's links with regional industry and research centres. Graduate students can pursue funded research assistantships or teaching assistantships, gain experience in advanced instrumentation, and develop a publication record under faculty mentorship—preparing them for competitive roles in research, industry or further academic study.