University of North Dakota

What you'll study

The programme provides a strong foundation in general, organic and physical chemistry, while offering specialised modules and laboratory experiences in optics and quantum chemistry. Core topics include chemical bonding and structure, thermodynamics and kinetics, spectroscopy, and instrumental analysis. Special-interest topics and modules you can expect include quantum mechanics for chemists, molecular spectroscopy, photochemistry, laser and optical methods, computational quantum chemistry, and materials chemistry for optical applications.

Programme structure typically combines lecture courses, weekly laboratory classes and small-group problem sessions. Students undertake progressively advanced laboratory work that emphasises modern instrumentation used in optical and spectroscopic analysis, such as absorption and emission spectroscopy, Raman spectroscopy, and computer-controlled data acquisition. Many students complete a capstone research project or honours thesis under the supervision of a chemistry faculty member, often working on projects that bridge chemistry, physics and engineering.

• Foundations: general chemistry, organic chemistry, analytical chemistry, physical chemistry
• Mathematical and computational tools: calculus, linear algebra (or equivalent), computational chemistry methods
• Optics and spectroscopy: molecular spectroscopy, photochemistry, laser techniques, optical materials
• Advanced quantum topics: quantum mechanics for chemists, electronic structure methods, quantum dynamics
• Laboratory and research: instrumental analysis labs, undergraduate research project or senior thesis, safety and good laboratory practice

Entry requirements

Admission to the Bachelor of Science in Chemistry typically requires a high school diploma or equivalent with strong performance in chemistry and mathematics. Applicants are expected to have completed pre-university mathematics (including calculus where available) and chemistry; physics is strongly recommended. International applicants must meet the University of North Dakota's general admission and English language proficiency requirements.

Specific entry standards may vary by applicant background. Transfer students should provide college transcripts showing readiness for upper-level chemistry and mathematics courses. Prospective students with questions about prerequisite preparation, placement testing, or non-traditional qualifications should consult the Department of Chemistry & Biochemistry admissions advisors for personalised guidance.

Career prospects

Graduates from this programme are prepared for a range of careers in academia, industry and government. Common pathways include roles in photonics and optical instrumentation, spectroscopy and analytical laboratories, materials development, chemical and pharmaceutical industries, and environmental analysis. The quantum chemistry and computational components also prepare students for positions in modelling and simulation, software development for scientific applications, and data-driven experimental design.

Many graduates proceed to postgraduate study (master’s or PhD) in chemistry, chemical physics, materials science or optical engineering. Others pursue professional roles such as laboratory chemist, research technician, quality control analyst, application scientist for instrumentation companies, or technical specialist in sectors using optical technologies. The programme also provides solid preparation for teaching at the secondary level with appropriate certification pathways.

Why study at University of North Dakota

The University of North Dakota offers a chemistry programme that emphasises hands-on learning and undergraduate research. Students benefit from small class sizes, close mentorship from faculty in the Department of Chemistry & Biochemistry, and opportunities to work on interdisciplinary projects that connect chemistry with physics and engineering. The department supports access to modern analytical and optical instrumentation and encourages students to develop practical laboratory skills alongside theoretical understanding.

UND supports undergraduate research through faculty-led projects and independent study options, enabling students to build competitive profiles for employment or graduate study. The university’s location and academic environment also foster collaborations and experiential learning opportunities with regional partners and cross-departmental research groups, helping students gain applied experience in optics, photonics and quantum chemistry.