University of Northern Colorado

What you'll study

This master's programme builds advanced knowledge in molecular quantum theory alongside practical and experimental optics. Core topics typically include graduate quantum mechanics, advanced physical chemistry, spectroscopy and photonics, laser and optical instrumentation, and computational chemistry methods. Students study both theory and application through modules such as:

• Quantum Chemistry and Molecular Structure — advanced treatments of electronic structure, perturbation and configuration interaction methods, and applications to molecular spectroscopy.
• Optical Spectroscopy and Instrumentation — techniques in absorption, fluorescence, Raman and laser spectroscopy, and hands‑on training with spectrometers and laser systems.
• Photonics and Laser Physics — fundamentals of lasers, nonlinear optics, and light–matter interactions relevant to communication and sensing technologies.
• Computational Chemistry and Modelling — use of quantum chemical software, density functional theory and molecular dynamics to model optical and electronic properties.
• Advanced Laboratory and Research Methods — experimental design, data analysis, safety, and instrumentation maintenance in optics labs.

The programme normally offers thesis and non‑thesis tracks. The thesis route centres on an independent research project supervised by a faculty member in areas such as ultrafast spectroscopy, quantum chemical modelling of optical processes, or fabrication and characterisation of optical materials. The non‑thesis track emphasises additional coursework and a capstone research or practicum experience. Graduate seminars and journal clubs develop presentation and critical‑reading skills.

Entry requirements

Applicants are expected to hold a bachelor’s degree in chemistry or a closely related field (physics, materials science or chemical engineering) with preparation in physical chemistry and undergraduate quantum mechanics. Typical application materials include official transcripts, a personal statement outlining research interests and career goals, a current CV, and two or three academic or professional letters of recommendation. Relevant laboratory research experience or coursework in optics, spectroscopy or computational chemistry is desirable.

International applicants must demonstrate English language proficiency according to the university's graduate admissions policy and provide any required documentation for credential evaluation. Prospective students with significant professional experience but without a directly relevant degree may be considered on a case‑by‑case basis with supporting evidence of preparation.

Career prospects

Graduates are prepared for roles in industry, government laboratories and academia. Common career paths include:

• Research scientist or engineer in photonics, lasers, optical sensing and imaging companies.
• Analytical or materials chemist focusing on optical materials, thin films and nanostructures.
• Computational chemist modelling electronic and optical properties of molecules and solids.
• Research positions at national laboratories or in applied research groups addressing energy, telecommunications, or defence‑related optics challenges.
• Further study at the doctoral level in chemistry, physics or engineering for careers in academic research and teaching.

Additional options include technical roles in semiconductor and instrumentation firms, science policy or intellectual property (often with supplementary legal training), and roles in education or science communication.

Why study at University of Northern Colorado

The University of Northern Colorado offers a department environment sized for close mentorship, giving graduate students direct access to faculty supervision and hands‑on lab experience. The chemistry faculty include researchers working across spectroscopy, optical diagnostics and computational chemistry, allowing students to align with projects that match their interests.

Facilities supporting the programme include modern spectroscopy and laser laboratories, computational resources for quantum chemical modelling, and opportunities for interdisciplinary collaboration with physics and engineering researchers. Located in Colorado, students also benefit from proximity to a regional optics and photonics ecosystem and research institutions, which can support internships and collaborative projects. Graduate assistantships and research‑funded positions are available to qualified candidates, providing practical training alongside financial support options.