University of Southern Indiana

What you'll study

The programme builds a solid core in general, organic and physical chemistry while adding targeted modules that emphasise optics, photochemistry and quantum chemical concepts. Early semesters cover foundational topics such as general chemistry, analytical methods, chemical laboratory techniques, and calculus. Intermediate and advanced courses typically include physical chemistry (thermodynamics and kinetics), quantum chemistry, spectroscopy, photochemistry, and materials chemistry.

• Core chemistry modules: general chemistry, organic chemistry, analytical chemistry, instrumental methods, and laboratory practicum.
• Physics and mathematics support: calculus, linear algebra, and introductory modern physics to underpin quantum and optical theory.
• Optics and photonics modules: classical and modern optics, optical spectroscopy, laser principles, and photonic materials.
• Quantum chemistry and theory: electronic structure methods, molecular orbital theory, computational chemistry techniques and applications to light–matter interactions.
• Practical experience: regular laboratory courses, undergraduate research projects with faculty, and opportunities to use spectroscopy, lasers and other optical instrumentation.
• Electives and interdisciplinary options: materials science, solid‑state chemistry, nanotechnology, or courses from physics and engineering to broaden applied skills.

The degree culminates in capstone experiences such as a senior research project or internship that allow you to apply quantum and optical chemistry concepts to a sustained piece of work, often producing original data or literature‑based synthesis.

Entry requirements

Applicants are expected to have completed a high school diploma or equivalent with a strong background in chemistry and mathematics. Recommended preparatory subjects include high school chemistry, algebra and precalculus; physics is strongly advised. Admissions consider demonstrated academic achievement, coursework rigor and readiness for STEM study.

Specific entry criteria are set by the university admissions office and may include grade point averages, secondary‑school credentials and any other standard documentation required for undergraduate entry. Transfer applicants should provide college transcripts and course descriptions; prior credit in chemistry, calculus or physics may be evaluated for advanced standing.

Career prospects

Graduates with a chemistry degree emphasising optics and quantum chemistry are well placed for roles in industries and sectors that work with light‑based technologies, advanced materials and molecular modelling. Typical career paths include:

• Research scientist or laboratory chemist in photonics, materials science, or semiconductor companies.
• Analytical chemist or spectroscopy specialist in instrumentation firms, environmental testing or industrial quality control.
• Applications or product development roles for companies producing lasers, optical sensors, LEDs and related photonic devices.
• Technical positions in pharmaceuticals, chemical manufacturing, and nanotechnology that require strong physical and computational chemistry skills.
• Further study: many graduates pursue graduate programmes (MS/PhD) in chemistry, physics, materials science or engineering, or professional degrees in fields such as patent law or science policy.
• Teaching and outreach: secondary school science teaching (with certification) or roles in science communication and laboratory education.

The degree’s combination of laboratory practice, computational training and discipline knowledge supports both immediate employment and competitive applications to postgraduate research programmes.

Why study at University of Southern Indiana

The University of Southern Indiana offers a student‑centred undergraduate environment with relatively small classes and close faculty mentorship, which is particularly valuable in laboratory‑intensive fields like optics and quantum chemistry. Students have access to hands‑on lab courses and supervised undergraduate research projects that provide practical experience with spectroscopy, lasers and computational tools.

USI’s regional partnerships and career services help connect students with internships and employment opportunities in industry and national laboratories. The chemistry faculty emphasize mentoring, undergraduate scholarship and preparation for both professional careers and graduate study, making the programme a strong choice for students seeking applied and research pathways in light‑based and quantum chemical sciences.