Boise State University

What you'll study

The programme blends advanced coursework with a substantial research project or thesis. Core topics typically include quantum chemistry and molecular electronic structure, advanced physical chemistry, spectroscopy and photonic materials. Students study both experimental and theoretical approaches to light–matter interaction: modules commonly cover ultrafast and nonlinear spectroscopy, laser and optical instrumentation, photonics and optical materials, and numerical methods for quantum systems.

Practical training is delivered through laboratory modules and independent research in faculty laboratories. Coursework frequently available to students includes:

• Quantum Mechanics for Chemists — fundamentals of wave mechanics, perturbation theory and electronic structure methods.
• Advanced Spectroscopy — techniques such as absorption, fluorescence, Raman and time-resolved methods.
• Optical Materials and Photonics — design and characterisation of materials for lasers, sensors and photonic devices.
• Computational Chemistry — ab initio and density functional approaches, excited-state calculations and software tools.
• Laboratory and Instrumentation — hands-on experience with lasers, detectors, fibre optics and spectrometers.
• Research Seminar and Professional Skills — scientific communication, research ethics and project management.

Students usually undertake a supervised research project that applies optics and quantum chemistry methods to a problem such as photophysical characterisation, development of optical sensors, modelling of excited-state dynamics, or design of novel optical materials.

Entry requirements

Applicants are expected to hold a recognised bachelor’s degree in chemistry, physics, materials science or a closely related discipline. Strong preparation in physical chemistry, calculus and linear algebra, and undergraduate laboratory experience are typically required. Admission normally requires:

• A completed undergraduate degree with a competitive academic record.
• Transcripts and at least one academic reference; two references are often advised.
• A statement of purpose outlining research interests and relevant experience.
• For international applicants, proof of English language proficiency (for example recognised test scores) unless exempt.

Some applicants may be asked to demonstrate research potential through previous project work or relevant employment. GRE scores are not universally required; check the department for current guidance. Applicants from related backgrounds may be admitted conditionally and asked to take specified prerequisite coursework.

Career prospects

Graduates are prepared for a range of roles in industry, national laboratories and academia. Typical career paths include:

• Research and development positions in photonics, optical instrumentation, lasers and sensor technology.
• Materials science and device engineering roles in companies working on semiconductors, thin films and optical coatings.
• Scientific roles in analytical instrumentation, quality control and product development.
• Further academic study at the PhD level in chemistry, physics or engineering-focused programmes.
• Technical consulting, patent science and science communication roles that draw on deep technical knowledge of optics and quantum chemistry.

The combination of experimental and computational training makes graduates attractive to employers developing next-generation optical materials, biomedical imaging devices, telecommunications components and related technologies.

Why study at Boise State University

Boise State provides a collaborative research environment with accessible faculty mentorship and opportunities to work in well-equipped spectroscopy and laser laboratories. The university’s location in Idaho offers proximity to regional technology and materials companies, enabling internship and industry collaboration opportunities. Interdisciplinary links across chemistry, physics and engineering areas support projects that bridge fundamental quantum chemistry and applied photonics.

Students benefit from a department that emphasises hands-on training, small-group supervision and a balance of coursework and independent research — an environment suited to preparing for either industry R&D roles or competitive doctoral programmes.