Georgia Southern University

What you'll study

This programme combines the traditional chemistry curriculum with specialised courses in physical chemistry, quantum chemistry and optics. Core lower-division work covers general chemistry, organic chemistry, analytical chemistry and introductory laboratory techniques. Mathematics and physics are integrated early and typically include calculus, differential equations and introductory mechanics and electromagnetism to give the quantitative foundation needed for physical and optical topics.

• Physical Chemistry and Quantum Chemistry: thermodynamics, chemical kinetics, quantum mechanics for chemists, and statistical mechanics.
• Optics and Spectroscopy: geometric and wave optics, Fourier optics, laser fundamentals, and modern spectroscopic methods such as UV-Vis, IR, Raman and fluorescence spectroscopy.
• Laboratory and Instrumental Methods: advanced lab courses emphasising experimental design, error analysis and hands-on work with spectrometers, lasers, and other instrumentation used in photonics and analytical chemistry.
• Computational and Materials Topics: computational chemistry methods, molecular modelling, and materials chemistry modules that relate to photonic materials and semiconductor/optical device contexts.
• Capstone and Research: options for an undergraduate research project or senior thesis under faculty supervision, seminar courses and opportunities to present research at departmental events.

Entry requirements

Applicants are expected to meet the university's general undergraduate admission standards and to have a strong preparation in science and mathematics from secondary education. Typical subject preparation includes chemistry, mathematics (pre-calculus or calculus) and physics. Successful candidates often present a strong academic record in STEM subjects and may be asked for letters of recommendation or a statement of purpose that outlines interest in optics, physical chemistry or research.

Transfer applicants should provide transcripts showing college-level coursework in chemistry and calculus; incoming students with appropriate AP, IB or dual-enrolment credits may receive advanced placement in introductory courses. Specific grade thresholds and supporting documentation are set by the university's admissions office.

Career prospects

Graduates with a chemistry degree emphasising optics and quantum chemistry have a range of options. Many continue into graduate school (master's or PhD) in chemistry, physics, materials science or electrical engineering to pursue research careers. Others move directly into technical roles in industries such as photonics and optical components, instrumentation and analytical laboratories, semiconductor and materials manufacturing, pharmaceuticals, and environmental testing.

Typical entry-level roles include laboratory chemist, optical technician, instrumentation specialist, quality-control analyst and technical sales/support for scientific equipment. The quantitative and programming skills developed also fit careers in data analysis, computational modelling and education at the secondary level when combined with appropriate certification.

Why study at Georgia Southern University

Georgia Southern's Department of Chemistry and Biochemistry provides a curriculum designed for undergraduate engagement and hands-on learning. Students benefit from faculty mentorship, access to departmental laboratories and instrumentation, and opportunities to participate in funded research projects. Small seminar and lab sections support close contact with instructors and practical skill development.

The university supports internships and collaborations with regional employers and research partners, enabling applied experience in industry and government settings. For students interested in optics and quantum chemistry, the programme's combination of rigorous coursework, laboratory training and undergraduate research makes it a solid preparation for further study or employment in photonics, analytical science and related technical fields.