Michigan State University

What you'll study

The programme builds from a thorough core in general, organic and inorganic chemistry into advanced work in physical and quantum chemistry with particular emphasis on optical phenomena. Early years typically cover general chemistry, laboratory techniques, calculus and introductory physics to ensure the quantitative background necessary for physical chemistry.

• Core chemistry and practical skills — general chemistry, organic chemistry, inorganic chemistry, analytical chemistry and multi-term laboratory courses emphasising safe handling, quantitative analysis and instrument operation.
• Physical and quantum chemistry — thermodynamics, chemical kinetics, quantum mechanics for chemists, statistical mechanics and physical chemistry laboratory work that introduces spectroscopy and thermochemical measurements.
• Optics and spectroscopy — courses and modules on molecular spectroscopy, optical properties of materials, laser basics, and techniques such as UV‑Vis, IR, Raman and fluorescence spectroscopy; experimental labs typically provide hands‑on experience with spectrometers and laser setups.
• Computational and theoretical methods — computational chemistry, electronic structure methods, and numerical methods for solving quantum problems; students learn to use software for modelling optical and quantum phenomena.
• Mathematics and physics support — calculus, differential equations, linear algebra and intermediate physics are integrated so students can engage with the quantitative aspects of quantum theory and optics.
• Research and capstone — opportunities for faculty‑mentored undergraduate research, independent projects or a senior thesis in areas such as photonics, quantum materials, ultrafast spectroscopy or computational studies of light–matter interaction.

Entry requirements

Applicants are expected to have a high school diploma or equivalent with strong preparation in chemistry, mathematics (including calculus where available) and physics. Typical preparation includes one or more years of high‑school chemistry, a year of algebra and precalculus or calculus, and at least one year of high‑school physics.

• Competitive applicants present a strong academic record in STEM subjects and preparatory coursework that demonstrates readiness for university‑level chemistry and calculus.
• International applicants must meet English language proficiency requirements and provide comparable academic documentation from their country of education.
• Advanced Placement (AP), International Baccalaureate (IB) or other recognised advanced credentials may be considered for credit or placement in calculus, chemistry or physics courses.

Career prospects

Graduates who focus on optics and quantum chemistry are prepared for a wide range of careers that bridge chemistry, physics and engineering. Many continue to graduate study in chemistry, materials science, optical engineering or physics; others move directly into industry or government roles.

• Research and development positions in photonics, optical materials, semiconductor and laser technology firms.
• Analytical and instrumentation roles in companies that design or use spectroscopy and optical measurement tools.
• Computational modelling and data‑analysis roles in materials design, chemical simulation and quantum chemistry software development.
• Opportunities in pharmaceuticals, chemical manufacturing, energy and environmental analysis where optical methods are applied.
• Pathways into national laboratories, technology start‑ups, patent law (with further legal training), science policy or secondary and post‑secondary teaching.

Why study at Michigan State University

Michigan State University offers strong undergraduate training in chemistry combined with access to research‑active faculty and well‑equipped teaching and research laboratories. The campus emphasises interdisciplinary collaboration, so students interested in optics and quantum chemistry can work with groups across departments such as physics, engineering and materials science.

• Undergraduate research opportunities allow students to gain hands‑on experience in experimental optics, spectroscopy and computational quantum chemistry under faculty supervision.
• Facilities include modern teaching laboratories and instrumentation for spectroscopy, laser experiments and computational resources that support advanced projects.
• The university’s connections with regional industry, national laboratories and a broad alumni network help students secure internships and employment after graduation.