University of Mary Washington

What you'll study

This programme delivers core chemistry training alongside specialised coursework and laboratory work in optics and quantum chemistry. You will complete foundational courses in general, organic and physical chemistry, and supporting mathematics and physics, then move into advanced topics that examine the behaviour of electrons and photons at the molecular and nanoscale.

• Core modules: general chemistry, analytical chemistry, organic chemistry, physical chemistry, instrumental analysis and laboratory safety.
• Mathematics and physics support: calculus, linear algebra, and introductory mechanics and electromagnetism to provide the quantitative tools used in quantum and optical theory.
• Optics and photonics topics: courses covering geometric and physical optics, spectroscopy, laser fundamentals, and experimental techniques for measuring light–matter interactions.
• Quantum chemistry topics: molecular quantum mechanics, electronic structure methods, computational chemistry and theory of chemical bonding and spectroscopy.
• Laboratory and practical work: hands‑on experience with spectrometers, lasers, optical benches, microscopy and contemporary instrumental analysis; emphasis on experimental design, data analysis and safety.
• Research and capstone: mentored independent research projects or a senior thesis in an area such as molecular spectroscopy, optical materials, quantum modelling of molecules or related experimental investigations.
• Electives and interdisciplinary options: opportunities to take courses in materials science, computer science (for modelling and data processing), electrical engineering topics, and mathematics to tailor the degree toward photonics, quantum information or materials chemistry.

Entry requirements

Applicants should demonstrate strong preparation in chemistry, mathematics and physics from their prior study. Typical expectations include a high‑school diploma (or international equivalent) with algebra, pre‑calculus or calculus, at least introductory physics and high‑school chemistry; transfer applicants should provide college transcripts showing success in foundational STEM courses.

• Academic preparation: strong grades in chemistry and mathematics; evidence of problem‑solving and laboratory competence is advantageous.
• Additional materials: a personal statement describing your interest in chemistry and optics/quantum topics, and letters of recommendation that can speak to your academic readiness.
• International applicants: required proof of secondary qualifications and, where applicable, English language proficiency per the university's admissions policies.
• Non‑traditional applicants and transfers: the department reviews prior coursework for equivalency and may recommend preparatory classes if gaps exist.

Career prospects

Graduates with a chemistry degree emphasising optics and quantum chemistry are well positioned for both continuation to advanced study and direct entry into technical roles. The skill set — quantitative analysis, laboratory competence, computational modelling and experimental optics — is highly transferable.

• Graduate study and research: MSc/PhD programmes in chemistry, physical chemistry, materials science, optical engineering and quantum information science.
• Industry and applied roles: positions in photonics and optics companies, materials and nanotechnology firms, instrumentation and analytical laboratories, and pharmaceutical or chemical industries.
• Government and national labs: roles supporting spectroscopy, sensor development, quantum technologies and applied research at federal and regional research facilities.
• Other careers: technical consultancy, patent work (with additional training), science education and outreach, and roles in data analysis or software development related to modelling and instrumentation.

Why study at University of Mary Washington

The University of Mary Washington provides a liberal‑arts environment with an emphasis on undergraduate teaching and close faculty mentoring. Chemistry students benefit from small class sizes, frequent access to laboratory time and opportunities to pursue independent research under faculty supervision.

• Strong undergraduate research culture: students can join faculty research projects or design capstone theses, gaining hands‑on experience in spectroscopy, optical experiments and computational chemistry.
• Modern laboratory resources: on‑campus instrumentation and teaching labs support advanced experimental work and student training in instrumental analysis and optical methods.
• Professional preparation and internships: the university’s location offers access to internships and collaborative opportunities in the greater Washington‑Baltimore region, useful for experience in industry and government labs.
• Flexible, interdisciplinary pathway: the programme encourages coursework across physics, mathematics and computer science to tailor training toward careers in photonics, quantum technologies or materials chemistry.