Boise State University

What you'll study

The programme builds strong core knowledge in general, organic and physical chemistry before moving to specialised topics in optics and quantum chemistry. You will study the theoretical foundations of quantum mechanics as applied to chemical systems and the experimental techniques used to probe optical and electronic properties of matter.

• Core chemistry sequence: general chemistry, organic chemistry, analytical chemistry and physical chemistry fundamentals.
• Mathematics and physics support: calculus, linear algebra, and introductory physics courses that underpin quantum and optical theory.
• Quantum chemistry: wave mechanics, electronic structure methods, spectroscopy theory and computational approaches for molecular systems.
• Optics and photonics: classical and modern optics, laser fundamentals, optical spectroscopy, light–matter interaction and experimental techniques such as absorption, fluorescence and Raman spectroscopy.
• Laboratory courses: hands-on lab modules emphasising experimental design, instrument use, data analysis and safe practises; advanced labs focus on spectroscopy, lasers and ultrafast techniques where available.
• Computational skills: use of quantum chemistry packages, data processing, numerical methods and modelling of optical systems.
• Research and capstone: an undergraduate research project or senior thesis under faculty supervision, internships with local industry or partner laboratories, and a capstone summarising experimental or computational findings.

Elective options allow deeper study in areas such as solid-state chemistry, nanomaterials, surface science, photonic device fabrication and advanced computational chemistry.

Entry requirements

Admission is to the university and then to the chemistry programme; applicants are expected to have a high school diploma (or equivalent) with strong preparation in science and mathematics. Typical preparation includes:

• High school chemistry and biology recommended; at minimum completion of introductory chemistry.
• Mathematics through algebra and trigonometry; calculus is strongly recommended.
• High school physics is recommended, particularly for students concentrating in optics and quantum chemistry.
• Successful completion of college preparatory coursework and a competitive academic record in relevant subjects. Standardised test requirements vary by admissions policy; check Boise State's admissions pages for current practice.
• For international applicants, proof of English proficiency is required (for example TOEFL, IELTS or an approved alternative) unless exempt by prior education in English.

Transfer students must provide transcripts from previous college-level study; completion of introductory chemistry and calculus will strengthen transfer applications to the major.

Career prospects

Graduates with a chemistry degree emphasising optics and quantum chemistry are well placed for careers across academia, industry and government. Common paths include:

• Research and development roles in photonics, optical sensors, lasers and materials science within private companies and national laboratories.
• Analytical and instrumentation science, working with spectroscopy, imaging and measurement technologies in industrial, environmental or clinical settings.
• Materials and nanotechnology positions focused on electronic, optical and quantum materials.
• Technical roles in semiconductor and photonics companies, including device testing, process development and quality assurance.
• Further study: many graduates pursue graduate degrees (MS/PhD) in chemistry, chemical physics, materials science, optical engineering or related fields to specialise in quantum chemistry, spectroscopy or photonics.
• Education and science communication: teaching, outreach and laboratory coordination roles at secondary and postsecondary levels.

Internships, undergraduate research and collaboration with regional employers and national laboratories enhance employability and provide practical experience directly relevant to these careers.

Why study at Boise State University

Boise State offers a chemistry programme with an emphasis on hands-on learning and undergraduate research. The department provides modern teaching laboratories, opportunities to work with faculty on experimental and computational projects, and supportive small-group instruction in upper-division courses. Proximity to regional technology companies and national laboratory partners provides pathways to internships and collaborative research experiences.

Students benefit from campus-wide support services including career counselling, research funding opportunities for undergraduates and facilities for spectroscopy and instrumental analysis. The university’s focus on applied research and engagement with industry makes it a practical choice for students who want to combine strong chemical theory with experience in optics, photonics and quantum-level applications.