University of Hawaii at Manoa

What you'll study

The programme provides a broad chemistry foundation in the first years followed by specialised courses and laboratory work in physical chemistry, quantum chemistry and optics. Core topics include general chemistry, organic chemistry, analytical methods, inorganic chemistry and physical chemistry. Specialised modules and practicals that students typically take include:

• Quantum Chemistry: introductory and advanced quantum mechanics applied to molecular systems, molecular orbital theory and electronic structure methods.
• Spectroscopy and Photonics: UV–Vis, IR, NMR and laser spectroscopy; principles of photonics, optical instrumentation and experimental techniques for studying light–matter interaction.
• Physical Chemistry Laboratory: kinetics, thermodynamics, statistical mechanics and experimental methods using modern instrumentation.
• Computational Chemistry: numerical methods, density functional theory basics, molecular modelling and simulation of optical properties.
• Advanced Topics: solid-state chemistry, materials for photonics, quantum materials and semiconductor physics as related to optical applications.
• Research Project or Capstone: an independent or faculty-supervised research project that often involves experimental optics, spectroscopy or computational studies in quantum chemistry.

The degree structure balances lectures, problem classes and extensive laboratory work. Students are encouraged to take elective courses in mathematics (calculus, linear algebra), physics (modern physics, electromagnetism) and computer science to support studies in optics and quantum theory. Undergraduate research placements with faculty and cross-disciplinary collaborations are an important component for hands-on experience.

Entry requirements

Entry is competitive and typically requires a recognised secondary school qualification. Typical academic preparation includes strong performance in mathematics and chemistry, with physics highly recommended. International qualifications are assessed for equivalence.

• Proof of secondary school completion with strong grades in mathematics and science (chemistry and/or physics).
• University-level admissions processes may require transcripts, a personal statement and references; some applicants may be assessed on a portfolio of relevant coursework or research experience.
• Placement or diagnostic tests in mathematics or chemistry may be used to determine appropriate course starting points.
• Non-native English speakers must meet the university's English language proficiency requirement via an accepted test or prior study in English.
• Recommended preparation for applicants: A-level or equivalent in chemistry and mathematics, introductory physics, and coursework or laboratory experience where possible.

Career prospects

Graduates with a chemistry degree focused on optics and quantum chemistry have a wide range of career possibilities across academia, industry and government. Common paths include:

• Research and Development: roles in materials science, photonics, optical device development, spectroscopy and quantum technologies in industrial R&D labs or research institutes.
• Higher Degrees and Academia: many graduates progress to MSc or PhD programmes in chemistry, physics, materials science or optical engineering to pursue research careers.
• Analytical and Instrumentation Roles: positions in analytical chemistry, quality control, and instrumentation companies that design or use optical and spectroscopic equipment.
• Technology and Engineering: work in semiconductor, telecommunications, renewable energy and sensor technology sectors where knowledge of light–matter interaction is valuable.
• Education, Policy and Science Communication: teaching at school or tertiary levels, science policy roles, or technical communication and outreach related to optics and quantum science.

The programme’s emphasis on laboratory skills, data analysis and computational techniques makes graduates attractive to employers who require experimental competence and quantitative problem-solving.

Why study at University of Hawaii at Manoa

University of Hawaii at Manoa offers a chemistry programme with strong research engagement and opportunities for undergraduate participation. The department provides modern laboratory facilities, access to spectroscopic and optical instrumentation, and faculty working across physical, materials and computational chemistry.

The campus’s geographic setting provides unique collaborative opportunities with nearby research observatories and interdisciplinary centres that focus on optics, atmospheric science and materials for optical applications. Small-class teaching and active faculty mentorship support students aiming for research projects, internships or postgraduate study. Students also benefit from a diverse campus community and connections to regional industry and national research labs for internships and employment.