Florida International University

What you'll study

The programme combines advanced coursework with original research. In the early years you take core courses to build a foundation in quantum mechanics, statistical mechanics and advanced physical chemistry, then move into specialised modules and laboratory rotations tailored to optics and quantum chemistry.

• Core topics: quantum chemistry, molecular quantum mechanics, statistical thermodynamics, and advanced spectroscopy.
• Specialist subjects: quantum optics, ultrafast and nonlinear spectroscopy, light–matter interactions, cavity QED, and coherent control of chemical dynamics.
• Computational and theoretical methods: electronic structure theory, time-dependent density functional theory (TD-DFT), configuration interaction methods, quantum dynamics and numerical methods for open quantum systems.
• Experimental techniques: femtosecond/picosecond laser spectroscopy, single-molecule fluorescence, nonlinear optical microscopy, and instrument development for precision optical measurements.
• Research training: laboratory rotations, independent research under a faculty advisor, preparation of a dissertation and regular research seminars. Students also present at group meetings and external conferences.

Programme structure typically includes coursework and qualifying examinations in the first phase, a dissertation proposal and focused research in the middle phase, and completion and defence of an original thesis in the final phase. Interdisciplinary collaboration with physics, electrical engineering and computational science is strongly encouraged.

Entry requirements

Applicants are expected to hold a Master's degree in chemistry, chemical physics, physics, materials science or a closely related discipline; exceptional applicants with a strong Bachelor’s degree and significant research experience may also be considered. Typical background expectations include undergraduate or graduate coursework in quantum mechanics, physical chemistry and mathematical methods for scientists.

• Academic transcripts: evidence of strong performance in relevant coursework.
• Research experience: demonstrated laboratory or computational research, with preference for applicants who can show publications, conference presentations or substantial project reports.
• Application materials: curriculum vitae, statement of research interests outlining proposed directions in optics or quantum chemistry, and at least three academic references.
• English proficiency: required for applicants whose prior education was not in English; standard university-approved proof of proficiency is needed.
• Funding and assistantships: competitive teaching and research assistantships are commonly offered to admitted PhD students; funding decisions are made at offer stage.

Career prospects

Graduates of the programme move into careers that demand deep expertise in light–matter interactions, quantum simulation and spectroscopic methods. Typical pathways include:

• Academic research and tenure-track positions in chemistry, physics and interdisciplinary departments.
• Research scientist roles at national laboratories and government research centres focusing on quantum information, photonics and materials.
• R&D positions in industry: optical and photonics companies, semiconductor and sensor manufacturers, and firms developing quantum technologies and imaging systems.
• High-performance computing and software development roles that support quantum chemistry and simulation.
• Scientific consulting, patent examination and technical leadership roles in companies commercialising optical instrumentation or quantum-based applications.

Why study at Florida International University

Florida International University offers a research-active environment with access to modern laboratories, shared instrumentation and an interdisciplinary culture that bridges chemistry, physics and engineering. The university’s location in a major metropolitan region provides connections to a diverse set of industries, government research facilities and regional collaborators.

Within the chemistry department students work with faculty whose expertise spans experimental optics, ultrafast spectroscopy, theoretical quantum chemistry and computational methods, enabling tailored supervisory teams and cross-department projects. Graduate students benefit from seminar series, collaborative centres and core facilities that support nanofabrication, laser spectroscopy and high-performance computation.

The programme emphasises mentorship, hands-on experimental and computational training, and professional development — preparing graduates for careers in academia, national labs and the growing commercial sector for photonics and quantum-enabled technologies.