University of San Diego

What you'll study

This programme provides a broad foundation in general, organic and analytical chemistry, with a specialised pathway in physical chemistry that emphasises optics and quantum chemistry. Core coursework covers chemical principles, laboratory techniques, quantitative analysis and chemical instrumentation. Specialised modules typically include quantum mechanics for chemists, molecular spectroscopy, photochemistry and photophysics, advanced physical chemistry, and computational methods for modelling electronic structure and optical properties.

• Core chemistry modules: general chemistry, organic chemistry, analytical chemistry, physical chemistry fundamentals.
• Optics and quantum-focused modules: quantum chemistry, molecular and electronic spectroscopy, laser spectroscopy, photochemistry, nonlinear optics concepts, and quantum dynamics.
• Supporting mathematics and physics: calculus, linear algebra, mathematical methods for physical sciences, introductory optics and electromagnetism.
• Laboratory and practical training: hands-on laboratory courses in synthesis and analysis, instrumentation labs covering spectrometers and lasers, and safety and best laboratory practice.
• Research and capstone: an independent senior research project or honours thesis supervised by faculty in chemistry, often in collaboration with physics or engineering faculty; opportunities to present at symposia.
• Electives and cross-disciplinary options: computational chemistry, materials chemistry, solid-state physics, courses in electrical engineering or computer science relevant to photonics and quantum information.

Entry requirements

Entry is normally based on successful completion of secondary education or equivalent qualifications. Typical applicants will have studied chemistry and mathematics to a strong level; physics is highly recommended where available. Admissions decisions consider academic transcripts, personal statements outlining interest in chemistry and optics, and letters of recommendation.

• Academic background: strong performance in chemistry and mathematics; physics recommended.
• Supporting materials: personal statement, academic references, and any relevant laboratory or research experience.
• International applicants: proof of English proficiency through accepted tests if English is not the applicant's first language.
• Advanced standing: students with advanced secondary qualifications or transfer credit from other institutions may be eligible for placement or credit exemptions in introductory modules.

Career prospects

Graduates from this pathway enter a range of roles in industry, academia and government. Many progress to postgraduate study (master’s or PhD) in chemistry, materials science, optics or quantum information science. Others join the workforce directly in technical or applied roles.

• Research scientist or technician in photonics, materials or chemical research laboratories
• Optical engineer or applications scientist in companies developing lasers, sensors, imaging systems or fibre‑optic technologies (often with further vocational training or study)
• Materials and semiconductor industry roles involving thin films, nanofabrication and characterization
• Positions in instrumentation and analytical chemistry firms focusing on spectroscopy and measurement systems
• Further study leading to academic research, teaching, or careers in national laboratories and government research agencies
• Opportunities in science policy, technical consulting, patent law (with additional qualifications), and STEM education

Why study at University of San Diego

The University of San Diego offers small class sizes and close faculty mentoring that support hands‑on learning and undergraduate research. Chemistry students benefit from interdisciplinary links with physics and engineering faculty, access to modern spectroscopy and laser laboratories, and opportunities to undertake independent research projects.

• Undergraduate research focus: strong emphasis on faculty‑mentored projects, enabling students to gain real laboratory experience and present findings.
• Interdisciplinary collaboration: easy access to complementary courses and projects in physics, engineering and computer science to build skills relevant to photonics and quantum technologies.
• Industry and regional links: proximity to a vibrant regional technology and biotech community provides internship and networking opportunities with firms active in optics, photonics and materials.
• Supportive learning environment: advising, career services and student societies help students develop technical competencies and professional readiness for graduate study or employment.