Georgetown University

What you'll study

The programme builds a rigorous foundation in general, organic, inorganic, analytical and physical chemistry, alongside mathematics and physics courses that support advanced work in optics and quantum chemistry. Early years emphasise core laboratory skills and quantitative problem solving; later years allow focused electives and independent research.

• Core chemistry courses: general chemistry, organic chemistry, inorganic chemistry, analytical chemistry and physical chemistry, each paired with laboratory components that develop experimental design, data analysis and safety practices.
• Supporting sciences and maths: calculus, linear algebra, differential equations, and physics courses (classical mechanics and electromagnetism) to underpin quantum and optical theory.
• Optics and spectroscopy: courses and modules covering classical and modern optics, optical instrumentation, lasers, absorption/emission spectroscopy, and time‑resolved spectroscopic methods.
• Quantum chemistry and theory: instruction in quantum mechanics as applied to atoms and molecules, electronic structure methods, computational chemistry techniques and interpretation of spectra.
• Computational and instrumentation skills: training in programming for scientific computing, numerical methods, and hands‑on experience with spectrometers, lasers and other optical instrumentation.
• Research and capstone: opportunities for faculty‑mentored undergraduate research, senior thesis or capstone projects in areas such as photochemistry, materials for photonics, ultrafast spectroscopy or theoretical studies of molecular electronic structure.

Entry requirements

Entry to Georgetown is selective and considers academic record, recommendations, personal statement and extracurricular engagement. Successful applicants to the chemistry programme typically have strong achievement in high‑level mathematics and science courses.

• Academic preparation: advanced courses in mathematics (including calculus) and chemistry; physics is strongly recommended.
• Standardised tests and alternatives: Georgetown evaluates applications holistically; applicants should consult the university for current testing policies and recommended scores if submitting tests.
• Additional strengths: laboratory experience, research projects, science competitions or relevant internships strengthen an application. Strong letters of recommendation from science teachers or mentors are useful.
• Transfer and international applicants: credentials should demonstrate equivalence to U.S. secondary and preparatory coursework; international applicants may be asked to provide evidence of English proficiency.

Career prospects

Graduates with a chemistry degree focused on optics and quantum chemistry move into a wide range of careers in industry, government and academia. The combination of experimental, theoretical and computational skills is highly transferable.

• Research and development: roles in photonics, materials science, semiconductor and defence industries working on optical devices, sensors, lasers and photonic materials.
• Graduate study and academia: many graduates pursue PhDs in chemistry, chemical physics, materials science or physics to specialise in quantum optics, ultrafast spectroscopy or theoretical chemistry.
• Analytical and technical positions: laboratory scientist, analytical chemist, instrumentation specialist, or process scientist in pharmaceutical, environmental and analytical testing sectors.
• Interdisciplinary and applied careers: roles in data science, computational modelling, patent law (with additional qualifications), science policy, and technical consulting, particularly where expertise in optics or quantum technologies is valued.

Why study at Georgetown University

Georgetown offers a liberal‑arts environment combined with opportunities for rigorous scientific training. Chemistry undergraduates benefit from close faculty mentorship, access to departmental laboratories and the chance to engage in independent research projects alongside faculty research programmes.

• Location and connections: situated in Washington, D.C., the university provides proximity to federal research agencies, national laboratories and a network of technology and policy organisations that can support internships and collaborative projects.
• Interdisciplinary opportunities: the programme encourages collaboration across physics, computer science and engineering, enabling students to pursue interdisciplinary work in photonics, quantum information or materials chemistry.
• Undergraduate research emphasis: students can join research groups, present at symposia and complete a senior thesis, gaining practical experience that prepares them for graduate study or technical roles.
• Career support: the university’s career services and departmental advising help students identify internships, summer research experiences and post‑graduation pathways in industry, government and academia.