Central Washington University

What you'll study

The programme blends coursework and research to give a strong foundation in quantum chemistry and optical techniques. Core topics typically include quantum mechanics for chemists, molecular spectroscopy, laser and optical instrumentation, and advanced physical chemistry. Students also study numerical methods and computational chemistry techniques used to model electronic structure and light–matter interactions.

Practical training emphasises hands-on laboratory and instrument experience: laser spectroscopy, time-resolved measurements, optical signal detection, and high-resolution spectrometers. A substantial component of the degree is an independent research project or thesis that applies quantum-chemical theory and experimental optics to a focused problem, such as molecular photophysics, nonlinear optics, or quantum-level control of chemical processes.

• Quantum Mechanics for Chemists
• Molecular and Electronic Spectroscopy
• Advanced Laboratory Techniques in Optics
• Computational Chemistry and Modelling
• Laser Systems and Photonics
• Research Methods and Thesis or Project

Entry requirements

Applicants should hold a bachelors degree in chemistry, physics or a closely related discipline. Typical academic preparation includes undergraduate coursework in physical chemistry, calculus, linear algebra, and introductory quantum mechanics or modern physics. Practical laboratory experience and basic programming or numerical skills strengthen an application.

Standard application materials usually include official transcripts, a personal statement describing research interests and goals, a current CV or résumé, and academic or professional references. Candidates with relevant research experience are preferred. Specific minimum GPA expectations and additional requirements are set by the universitys graduate admissions office and the chemistry department.

Career prospects

Graduates are prepared for technical and research roles where quantum chemistry and optics intersect. Typical career paths include:

• Research scientist or engineer in photonics, lasers, sensors and optical instrumentation companies
• Analytical or spectroscopic chemist in industrial laboratories (pharmaceuticals, materials, environmental analysis)
• R&D positions in semiconductor and optoelectronics firms
• Technical roles in national and government laboratories working on quantum technologies
• Further academic research through PhD programmes in chemistry, physics or engineering
• Scientific support roles such as laboratory management, technical sales for instrumentation, or patent and regulatory science

Why study at Central Washington University

Central Washington University offers a hands-on, mentorship-rich environment with small class sizes that allow close faculty supervision of graduate research. The chemistry faculty have expertise across physical chemistry, spectroscopy and applied optics, enabling interdisciplinary projects that combine theory, computation and experiment.

Facilities support practical training in lasers, optics and modern spectroscopy, and students can develop applied skills on instruments commonly used in industry and research. CWUs location and collaborative links support internships and local industry engagement, while graduate teaching and research assistantships provide opportunities to gain teaching experience and financial support during study.

The programme is designed for students who value close mentorship, practical laboratory training and a pathway into photonics, quantum science or advanced chemical research.