Brandeis University

What you'll study

The PhD programme emphasises original research alongside a coherent core of graduate coursework. Early years typically combine advanced classes, laboratory rotations and qualifying examinations; later years focus on an independent research dissertation supervised by a faculty advisor.

• Core coursework: advanced physical chemistry, quantum mechanics for chemists, statistical mechanics, and spectroscopy. Students also take methods courses in optics, photonics and computational quantum chemistry depending on their focus.
• Optics and experimental modules: ultrafast spectroscopy, nonlinear optics, laser physics, optical instrumentation and imaging techniques. Experimental students develop skills in laser systems, time-resolved measurements, optical design and data analysis.
• Quantum chemistry and theory modules: electronic structure theory, density functional theory, excited-state methods, quantum dynamics, and quantum information concepts as applied to molecular systems and materials.
• Computational training: high-performance computing, electronic-structure software, molecular dynamics and quantum dynamics packages and numerical methods for modelling light–matter interactions.
• Interdisciplinary opportunities: students frequently take electives or collaborate with neighbouring programmes in physics, materials science, biology, or engineering to pursue topics such as nanophotonics, quantum materials, single-molecule spectroscopy or chemical dynamics.
• Research milestones: initial rotations to identify a research group, a qualifying or candidacy examination to assess readiness for independent research, annual thesis progress reviews and final dissertation defence.

Entry requirements

Applicants are expected to hold a strong bachelor’s degree in chemistry, physics, chemical engineering or a closely related discipline. A master’s degree may be beneficial but is not always required if the undergraduate preparation and research experience are strong.

• Academic preparation: substantial coursework in physical chemistry, quantum mechanics and mathematics (calculus and linear algebra) is expected. Prior laboratory or computational research experience is highly recommended.
• Application materials: official transcripts, a personal statement outlining research interests and goals, names and contact details for academic referees, and a CV. Applicants whose first language is not English will need to demonstrate English proficiency through a recognised test unless exempt.
• Assessment: admissions decisions are based on academic record, research potential demonstrated in references and statement, and fit with faculty research interests. Some applicants may be invited to interview with potential advisers or the admissions committee.

Career prospects

Graduates of this programme move into a variety of research-intensive careers where deep understanding of quantum chemistry and optics is valued. Typical pathways include:

• Academic research and teaching: postdoctoral positions and faculty roles in chemistry, physics and interdisciplinary departments.
• Industrial R&D: positions in pharmaceutical and chemical companies, materials and coatings firms, and companies developing photonics, lasers and optical systems.
• Quantum technology and startups: roles in companies building quantum hardware, quantum sensing devices, or developing quantum-enabled simulation tools for chemistry and materials design.
• National laboratories and government research: projects in spectroscopy, high-performance computing, and advanced instrumentation for energy, defence and fundamental science.
• Computational science and data-driven roles: positions applying electronic-structure methods, machine learning for materials discovery, and simulation-driven product development.

Why study at Brandeis University

Brandeis offers a research-focused environment with close faculty-student interaction in a department known for strengths in chemical physics, spectroscopy and computational chemistry. The university promotes interdisciplinary collaboration across chemistry, physics and materials science, enabling projects that span experimental optics and theoretical quantum chemistry.

• Collaborative research culture: relatively small programme size supports close mentorship and opportunities to develop independent projects while collaborating with nearby institutions in the Boston–Cambridge research ecosystem.
• Facilities and resources: access to modern spectroscopy and laser laboratories, computational clusters and shared core facilities that support experimental and theoretical investigations.
• Proximity to industry and national labs: geographic access to a dense community of biotech, photonics and quantum technology companies as well as national research facilities provides internships, collaborations and career connections.
• Professional development: students benefit from workshops, seminar series and teaching opportunities that prepare them for roles in academia, industry and beyond.