Dartmouth College

What you'll study

The programme combines advanced coursework, laboratory rotations and an independent research thesis, with a particular emphasis on optical phenomena and quantum-level chemical processes. Core topics typically include quantum mechanics for chemists, molecular spectroscopy, optical physics and photonics, and computational methods for quantum chemistry. Elective modules and seminars allow further depth in areas such as ultrafast spectroscopy, nonlinear optics, quantum information and control, solid-state and nanoscale optics, and surface-enhanced spectroscopies.

• Core coursework: quantum chemistry, statistical mechanics, molecular spectroscopy, and experimental methods in modern optics.
• Laboratory training: hands-on experience with lasers, time-resolved spectroscopy, cryogenic and vacuum systems, and single-photon detection techniques.
• Computational skills: electronic structure calculations, density functional theory (DFT), wavefunction methods and numerical simulation of light–matter interactions.
• Research thesis: an extended independent research project under faculty supervision, culminating in a written thesis and oral defence or seminar presentation.
• Seminars and collaboration: participation in departmental seminars, interdisciplinary projects with physics and engineering groups, and opportunities to collaborate with Thayer School of Engineering laboratories.

Entry requirements

Applicants should hold a bachelor's degree in chemistry, physics, materials science or a closely related discipline, with strong preparation in physical chemistry and mathematics. Typical preparation includes undergraduate courses in quantum mechanics, spectroscopy, physical chemistry and laboratory coursework. Admissions decisions are based on the academic transcript, letters of recommendation (preferably including at least one from a research supervisor), a personal statement outlining research interests and fit with faculty, and evidence of laboratory experience or research potential.

International applicants will need to demonstrate English language proficiency where required by the college. Applicants whose backgrounds differ from the typical profile but who can demonstrate quantitative aptitude and relevant experience may be considered; in such cases preparatory coursework may be recommended.

Career prospects

Graduates build careers in experimental and theoretical research across academia, industry and government laboratories. Typical roles include research scientist or engineer in photonics and optics companies, positions in quantum technology and quantum information startups, materials and nanotechnology R&D, analytical and instrumentation firms, and technical roles in national laboratories. The programme also prepares students for entry into PhD programmes in chemistry, physics or engineering, and for careers in patent law, scientific consulting and technical management where deep expertise in optical and quantum chemical methods is valued.

Why study at Dartmouth College

Dartmouth provides a closely mentored, collaborative environment with small cohort sizes that support intensive research training. Students benefit from access to well-equipped laboratories, shared facilities and interdisciplinary links with the Thayer School of Engineering and the Department of Physics & Astronomy. Faculty research strengths in optical spectroscopy, quantum dynamics, ultrafast phenomena and nanoscale materials offer a range of project opportunities, while regular seminars and informal interactions foster cross-disciplinary learning.

The college’s emphasis on undergraduate and graduate mentorship, paired with an active research culture, helps students gain technical independence and publishable research experience. Dartmouth’s alumni network and regional connections also support internships, industrial partnerships and post-graduate placement, while the campus setting encourages a focused research experience with close faculty engagement.