Eastern Michigan University

What you'll study

The programme combines advanced coursework in quantum chemistry and optical sciences with hands-on laboratory experience and research. Core topics typically include molecular quantum mechanics, electronic structure methods, spectroscopy and photophysics, laser and optical instrumentation, nonlinear optics, and computational chemistry techniques used to model electronic states and light–matter interactions.

Students usually follow a mix of taught modules and a research project or thesis. Typical modules and practical components you can expect are:

• Quantum Chemistry: advanced treatment of wavefunctions, perturbation and variational methods, configuration interaction, coupled-cluster basics and principles of electronic structure theory.
• Spectroscopy and Photophysics: electronic, vibrational and rotational spectroscopy; time-resolved methods; interpretation of spectra for molecular structure and dynamics.
• Optics and Photonics: fundamentals of optics, lasers, interferometry, optical materials and instrumentation, and applied photonics for sensing and imaging.
• Computational Methods: practical use of quantum chemistry packages, basis sets, density functional theory, and modelling of excited states and non-adiabatic processes.
• Laboratory Research: experimental training in optical measurement techniques, laser safety and experimental design; data analysis and reproducible research practices.
• Electives and Interdisciplinary Options: courses drawn from materials chemistry, solid-state physics, engineering optics or advanced analytical methods depending on student interests.

The programme typically offers thesis and non-thesis routes. The thesis route centres on an independent research project mentored by a faculty member in areas such as optical spectroscopy, quantum chemical modelling or materials for photonic applications. The non-thesis path emphasises additional coursework and a project or practicum designed for professional development.

Entry requirements

Applicants normally need a bachelor's degree in chemistry, physics, chemical engineering or a closely related science, with evidence of strong performance in physical chemistry, mathematics and laboratory courses. Specific expectations include:

• A completed undergraduate degree from an accredited institution.
• Academic transcripts showing competency in physical chemistry (thermodynamics, quantum/physical chemistry), calculus and basic physics.
• A personal statement describing research interests and career goals, and how they align with faculty expertise.
• Letters of recommendation, typically two or three, from academic or professional referees who can attest to your preparation for graduate-level work.

Admissions may also consider relevant research or industry experience. International applicants must meet the university's English language proficiency requirements. Some applicants pursue preparatory coursework or bridge programmes if their background lacks sufficient physical chemistry or mathematics.

Career prospects

Graduates with a master’s in Chemistry specialising in Optics and Quantum Chemistry move into a range of research, technical and development roles. Common career pathways include:

• Research scientist or engineer in photonics, optical components, imaging and sensing industries.
• Materials scientist working on electronic or photonic materials for displays, solar cells or LEDs.
• Analytical scientist using spectroscopic and laser-based techniques in environmental, pharmaceutical or industrial laboratories.
• Computational chemist modelling molecular electronic structure and excited-state processes for chemical companies or national laboratories.
• Progression to PhD study for careers in academia or advanced research institutions.
• Technical positions in applied optics or quality control roles in manufacturing settings and in R&D support for electronics and medical device companies.

The combination of experimental and computational training makes graduates attractive to employers who need interdisciplinary skills in optics, spectroscopy and quantum-level analysis.

Why study at Eastern Michigan University

Eastern Michigan University offers a supportive, research-active environment with relatively small classes and direct access to faculty mentors in physical and quantum chemistry. Students benefit from hands-on laboratory training using modern optical and spectroscopic equipment alongside opportunities to learn computational chemistry tools used in contemporary research.

The university's location provides convenient links to regional industry and national laboratories, which can facilitate internships, collaborations and employment opportunities. Graduate students can often pursue teaching assistantships or research assistant positions that provide professional experience and financial support while developing a specialised portfolio of research and technical skills.

Overall, the programme is designed to give a rigorous foundation in theory and experiment while allowing flexibility to tailor study toward applied photonics, materials chemistry or continued academic research.