Northern Arizona University

What you'll study

The programme builds a strong core in general, organic and physical chemistry before moving into advanced topics in optics and quantum chemistry. Early courses cover chemical principles, analytical techniques, laboratory safety and quantitative problem solving. Later modules emphasise the theory and applications of quantum mechanics to chemical systems and the interaction of electromagnetic radiation with matter.

• Core chemistry: General Chemistry, Organic Chemistry, Analytical Chemistry, Inorganic Chemistry, Physical Chemistry.
• Optics and spectroscopy: Principles of Optics, Molecular Spectroscopy, Laser Fundamentals, Ultrafast and Nonlinear Optics concepts as they apply to chemical analysis.
• Quantum chemistry: Introductory and advanced Quantum Mechanics for chemists, Computational Quantum Chemistry, Electronic Structure Theory.
• Laboratory and practical skills: Instrumental Analysis, Advanced Laboratory Techniques, Optical instrumentation and alignment, Spectroscopic data acquisition and interpretation.
• Supporting subjects: Calculus, Multivariable Calculus, Differential Equations, Linear Algebra, Thermodynamics and Electromagnetism for physical chemistry context.
• Capstone and research: Senior capstone project or thesis, opportunities for independent research in faculty labs focusing on photonics, materials, spectroscopy or computational modelling.

Students have access to hands‑on laboratory courses, computing resources for molecular modelling and opportunities to tailor electives toward photonics, materials chemistry, or quantum information science topics.

Entry requirements

Applicants should hold a recognised secondary school diploma or equivalent with strong preparation in mathematics (including calculus) and the physical sciences. Typical entry expectations include:

• Solid grades in mathematics and science subjects, particularly chemistry and physics.
• Evidence of quantitative ability, for example through coursework in calculus and algebra.
• For transfer applicants, college coursework in introductory chemistry and mathematics is beneficial.
• International applicants must meet English language proficiency requirements through recognised tests or prior study in English.

Additional selection factors may include personal statements, references and any relevant laboratory or research experience. Prospective students who lack certain prerequisites are often able to take preparatory courses to build the necessary background.

Career prospects

Graduates with a chemistry degree emphasising optics and quantum chemistry are prepared for a range of technical and research roles. Common career paths include:

• Research scientist or technician in photonics, spectroscopy and materials science laboratories.
• Roles in optical instrumentation and sensor development for industry and government laboratories.
• Positions in semiconductor, communications or laser technology companies that require knowledge of light–matter interactions.
• Computational chemist or modelling specialist working on electronic structure and quantum simulations.
• Further study at graduate level (MSc/PhD) in chemistry, physics, materials science or optical engineering, leading to academic and advanced research careers.
• Science education, technical sales, patent analysis and roles in quality control or regulatory science.

Undergraduate research, internships and capstone projects during the degree strengthen employability and provide practical experience valued by employers and graduate programmes.

Why study at Northern Arizona University

Northern Arizona University offers a supportive learning environment with relatively small class sizes and accessible faculty who are active in research and teaching. The chemistry programme emphasises hands‑on laboratory training and undergraduate research, helping students develop practical skills with modern instrumentation and computational tools.

• Opportunities for one‑on‑one mentorship and to join faculty research projects in spectroscopy, materials and quantum‑related topics.
• Facilities and lab space suited to optical experiments, instrumental analysis and computational chemistry work.
• Flexible degree pathways that allow specialisation through electives, internships and a senior capstone or thesis.
• Career services, internship links and alumni networks that support transitions into industry or graduate study.

Overall, NAU’s chemistry programme is a strong choice for students aiming to combine a broad chemical education with focused training in optics and quantum chemistry, preparing them for technical careers and advanced study.