University of Wisconsin–Parkside

What you'll study

The programme combines the standard undergraduate physics curriculum with targeted coursework and laboratory experience in nuclear and particle physics. You will study foundational subjects such as classical mechanics, electromagnetism, quantum mechanics and thermodynamics together with advanced topics and practical labs that address the behaviour and detection of subatomic particles and nuclear processes.

• Core physics courses: classical mechanics, electricity and magnetism, modern physics, quantum mechanics, statistical mechanics/thermodynamics.
• Mathematics and computing: calculus sequence, linear algebra, differential equations and computational physics methods used in data analysis and modelling.
• Laboratory work: intermediate and advanced physics labs emphasising experimental technique, uncertainty analysis and instrumentation.
• Nuclear and particle-specific courses: nuclear physics, particle physics/introductory high-energy physics, radiation physics and detection, and radiation safety fundamentals.
• Electives and special topics: courses in experimental methods, electronics for physicists, detectors and instrumentation, and seminars on contemporary topics in nuclear and particle physics.
• Capstone and research: a senior capstone project or independent research under faculty supervision is strongly encouraged; students gain hands-on experience with data analysis, experiment design and technical communication.

Entry requirements

Applicants should hold a high school diploma or equivalent with strong preparation in mathematics and science. Successful candidates typically have completed calculus and physics at the high school level; chemistry is also recommended. Admissions decisions take into account the applicant's academic record, strength of mathematics and science courses, and other achievements. Placement tests or departmental advising may help place students into the appropriate first-year mathematics and physics courses.

Career prospects

Graduates are well positioned for a range of paths. Many continue with postgraduate study in physics, nuclear science, particle physics or related disciplines. Others move directly into technical roles or industry where their analytical and quantitative skills are valued.

• Research careers in national and regional laboratories or university research groups.
• Further study leading to roles in medical physics, radiation oncology, or health physics (usually requiring postgraduate certification).
• Instrumentation, detector development and engineering roles in industry.
• Data science, software development and computational modelling positions that make use of strong quantitative training.
• Secondary school science teaching or science communication after appropriate certification or training.

Why study at University of Wisconsin–Parkside

UW–Parkside offers a personalised undergraduate experience with small class sizes and direct access to faculty mentors, which supports hands-on learning and undergraduate research in physics. The physics faculty emphasise experimental skills and applied problem solving, and students have opportunities to design independent projects and participate in presentational activities such as departmental seminars.

The university’s location in the Wisconsin–Illinois border region provides convenient access to a network of research facilities, industries and internship possibilities. Students benefit from preparation for both graduate study and technical careers through a curriculum that balances theoretical foundations, laboratory experience and computational training.