University of Delaware

What you'll study

This programme builds a strong foundation in general, organic, inorganic, analytical and physical chemistry, then moves into focused coursework and laboratory experience in quantum chemistry and optics. Typical course topics include physical chemistry (thermodynamics and kinetics), quantum mechanics for chemists, molecular spectroscopy, optics and photonics, computational chemistry, and advanced laboratory methods.

• Core chemistry courses: general chemistry sequence, organic chemistry sequence, analytical chemistry, inorganic chemistry.
• Physical and theoretical chemistry: thermodynamics and kinetics, quantum chemistry, statistical mechanics, molecular structure and bonding.
• Optics and spectroscopy: optical spectroscopy, laser fundamentals, photophysics, nonlinear optics, and instrumentation for optical measurements.
• Computational and experimental methods: computational chemistry and modelling, numerical methods, upper‑level laboratory courses emphasising experimental design, data analysis and instrumentation.
• Supporting mathematics and physics: calculus, linear algebra, and introductory/advanced physics courses (mechanics, electromagnetism, and modern/quantum physics as relevant).
• Capstone and research: a senior capstone or independent research project conducted under faculty supervision, often involving optical experiments, spectroscopic characterisation or quantum chemical calculations.
• Electives: students can take electives that complement optics/quantum work such as materials chemistry, nanoscience, photochemistry, electrical engineering or computer science courses relevant to instrumentation and data analysis.

Entry requirements

Admission to the University of Delaware undergraduate chemistry programmes follows the university's general undergraduate admissions process. Applicants should present a strong high school academic record with emphasis on mathematics and the sciences.

• Recommended preparatory subjects: high school chemistry and physics, and at least two years of college‑preparatory mathematics including algebra, geometry and pre‑calculus or calculus.
• Academic profile: competitive applicants typically have strong grades in STEM subjects and demonstrate problem‑solving ability; completion of advanced courses (AP/IB/A‑level) in calculus, chemistry or physics strengthens an application.
• Standardised tests and English language: the university's policies on standardised testing and English language proficiency apply; international applicants should demonstrate English proficiency through accepted examinations or waivers where appropriate.
• Other considerations: evidence of laboratory experience, programming or research experience, strong letters of recommendation and a clear statement of interest in chemistry or optics can be advantageous.

Career prospects

Graduates with a chemistry degree concentrated in optics and quantum chemistry are prepared for a variety of paths. Many continue to graduate study in chemistry, chemical physics, materials science, photonics or quantum information science. Others enter industry roles where a chemistry background and optical/quantum skills are valuable.

• Research and development positions in photonics, optical materials, spectroscopy and analytical instrumentation.
• Careers in materials science, semiconductor and optoelectronics companies, or organisations developing lasers, sensors and imaging systems.
• Analytical and quality roles in pharmaceutical, chemical and environmental laboratories.
• Technical roles that combine experimental and computational skills, including computational chemistry, modelling and data analysis.
• Further professional training for careers in academia, national laboratories, patent law (with further qualification) or science policy.

Why study at University of Delaware

The University of Delaware offers small‑group learning in upper‑level chemistry classes combined with ample opportunities for undergraduate research alongside active faculty working in optical spectroscopy, materials chemistry and quantum‑related topics. Students benefit from modern laboratory facilities, access to specialised instrumentation for optical measurement and spectroscopy, and connections to regional industry and research networks that support internships and collaborative projects.

Advising and mentoring are emphasised to help students tailor their programme toward graduate school or industry, and the curriculum is designed to integrate laboratory experience, computational training and strong mathematical preparation essential for success in optics and quantum chemistry fields.