University of New Haven

What you'll study

This degree provides a broad grounding in general, organic, inorganic and physical chemistry before moving into specialised topics in optics and quantum chemistry. You will study classical and modern concepts of quantum mechanics relevant to chemical systems, molecular spectroscopy, photophysics and photochemistry, and the principles of optical materials and devices.

• Core chemistry modules — general chemistry, organic chemistry, inorganic chemistry, analytical chemistry and physical chemistry, each with substantial laboratory components to build practical analysis and synthesis skills.
• Mathematics and physics supporting modules — calculus, linear algebra, and introductory classical mechanics and electromagnetism to underpin quantum and optical theory.
• Optics and spectroscopy — modules covering wave optics, geometric optics, laser fundamentals, absorption and emission spectroscopy, Raman and fluorescence techniques, and modern experimental methods for characterising optical properties.
• Quantum chemistry — quantum theory for chemists, molecular orbital theory, computational quantum chemistry methods (basis sets, Hartree–Fock, post-Hartree–Fock and density functional theory) and applications to spectroscopy and photophysical processes.
• Laboratory and instrumentation — hands-on training with spectrometers, lasers, optical benches, microscopy and modern analytical instrumentation, emphasising experimental design, data analysis and safety.
• Computational and data skills — molecular modelling, numerical methods, programming for scientific computing, and handling of experimental datasets.
• Project and capstone — an independent research project or thesis in optics, photonics or quantum chemistry conducted under faculty supervision, often integrating experimental and computational approaches.
• Electives and professional development — options may include semiconductor physics, materials chemistry, nanotechnology, photonic devices, scientific communication and internship or co‑op placements with industry partners.

Entry requirements

Applicants should hold a recognised high-school diploma or equivalent with strong performance in chemistry and mathematics; coursework in physics is highly desirable. Typical academic preparation includes calculus and high-school level physics. Admissions decisions also take into account overall academic record, personal statement and references. For international applicants, equivalent secondary qualifications such as the International Baccalaureate or approved national equivalents are accepted.

Standardised test scores (SAT/ACT) may be considered where submitted, but testing policies can vary. Mature or transfer applicants will be evaluated on college transcripts and any relevant laboratory or research experience. Applicants whose first language is not English are usually required to demonstrate English proficiency through recognised tests or institutional pathways.

Career prospects

Graduates with this combination of chemistry, optics and quantum chemistry are well placed for roles in research and development, quality control and analytical laboratories, and technology-driven industries. Typical employer sectors include:

• Photonics and optical device manufacturers (lasers, sensors, optical communications)
• Materials science and nanotechnology companies developing optical materials and coatings
• Semiconductor and optoelectronics industry
• Analytical and contract research laboratories
• Scientific software and computational modelling firms
• Government, national laboratories and defence research organisations
• Further study at graduate level (master’s or PhD) in chemistry, physics, materials science or engineering
• Science policy, technical consulting, patent examination and technical sales roles that value strong technical knowledge and communication skills

Many graduates also pursue postgraduate research to specialise further in quantum optics, photochemistry or computational spectroscopy.

Why study at University of New Haven

The University of New Haven offers a hands-on approach with a strong emphasis on laboratory experience and applied skills. Students benefit from small class sizes and close faculty mentorship, which supports the independent research projects central to the programme. The university’s location provides access to regional technology and manufacturing hubs in Connecticut and the broader Northeast, facilitating internships and industry collaborations.

The curriculum integrates theoretical, computational and experimental training so students leave with a balanced skill set valued by employers and graduate programmes. Career services and industry links help students find co‑op placements, internships and job opportunities, while elective pathways allow you to tailor the degree to interests such as photonics, materials chemistry or computational modelling.