University of Northern Colorado

What you'll study

This programme combines a core chemistry curriculum with focused study in quantum chemistry and optics. You will cover foundational topics such as general and organic chemistry, physical chemistry, analytical methods and instrumental analysis, alongside specialised modules in quantum mechanics, molecular spectroscopy, laser physics, and optical materials. Coursework typically includes substantial laboratory components and problem-solving classes in mathematical methods for chemists.

• Core chemistry topics: general chemistry, organic chemistry, physical chemistry (thermodynamics and kinetics), analytical chemistry, and laboratory techniques.
• Optics and quantum-focused modules: quantum chemistry, molecular and electronic spectroscopy, laser principles and applications, photonics and optical materials, and nonlinear optics.
• Supporting subjects: calculus and linear algebra, mathematical methods for scientists, computational chemistry or modelling, and solid-state materials.
• Practical experience: advanced instrumental laboratory work (spectroscopy, microscopy, laser-based experiments), independent research projects or capstone experiences under faculty supervision, and opportunities for internships.

The degree emphasises hands-on laboratory training, data analysis and research communication. Students normally complete a senior research project or thesis in optics, spectroscopy or a related quantum-chemical topic, often in collaboration with faculty members who research experimental and theoretical aspects of photonics and molecular quantum behaviour.

Entry requirements

Applicants should hold a high-school diploma or equivalent with strong preparation in mathematics and science. Typical preparation includes high-school chemistry, physics and calculus or precalculus; readiness for calculus-based chemistry is expected. Admissions will consider academic transcripts, a personal statement, and any relevant laboratory or research experience.

• Academic credentials: competitive high-school grades in quantitative subjects; transfer applicants are evaluated on college coursework in chemistry, mathematics and physics.
• Testing and English language: standardised test scores may be optional depending on the applicant's profile; international applicants will need to demonstrate English proficiency via accepted tests or equivalent documentation.
• Recommended preparation: one year of high-school chemistry, one year of high-school physics, and at least one year of high-school mathematics (preferably including calculus or advanced algebra/trigonometry).

Prospective students with limited laboratory experience can still be admitted but are encouraged to undertake preparatory coursework or summer laboratory programmes to succeed in the intensive lab components of the degree.

Career prospects

Graduates with a chemistry degree focused on optics and quantum chemistry have a range of career paths in industry, government and academia. Common destinations include:

• Research and development in photonics, optical sensors and laser systems.
• Materials science and semiconductor industries working on optoelectronic devices and thin-film materials.
• Analytical and instrumentation roles involving spectroscopy, microscopy and precision measurement.
• Further study at graduate level (MSc or PhD) in physical chemistry, chemical physics, optics or related engineering disciplines.
• Quality control, technical support and applications engineering for companies producing optical components and scientific instruments.
• Science education, technical writing, patent support and roles in science policy or laboratory management.

The programme’s strong laboratory and research components also make graduates attractive candidates for competitive postgraduate fellowships and for careers that require hands-on experimental skill and quantitative problem solving.

Why study at University of Northern Colorado

The University of Northern Colorado provides a student-centred environment with accessible faculty and significant opportunities for undergraduate research. Chemistry students benefit from well-equipped teaching and research laboratories, small class sizes in upper-division courses and close mentoring by faculty working on experimental and theoretical projects related to spectroscopy, photonics and molecular quantum phenomena.

• Opportunities for supervised undergraduate research and senior thesis projects that connect students directly with active faculty research.
• Practical laboratory training with modern instrumentation used in spectroscopy and optical measurements.
• Supportive campus resources including career services, internships and partnerships with regional industries and research institutions in the wider Colorado technology and scientific community.

Students interested in combining teaching and research can also pursue certification pathways for secondary science education, taking advantage of UNC’s strengths in teacher preparation while gaining specialised training in physical and quantum chemistry.