Eastern Washington University

What you'll study

The programme builds a solid foundation in classical and modern physics before moving into specialised topics in nuclear and particle physics. Early years emphasise calculus-based mechanics, electromagnetism, waves and optics, and introductory quantum mechanics, accompanied by progressive laboratory courses to develop experimental skills.

• Core theoretical courses: Classical mechanics, electricity and magnetism, quantum mechanics, statistical and thermal physics.
• Laboratory and practical skills: Introductory and advanced physics labs, electronics for physicists, experimental design and data analysis.
• Computational methods: Programming for scientists, numerical methods, data modelling and simulation techniques used in particle and nuclear studies.
• Specialist nuclear and particle modules: Nuclear physics (nuclear structure and reactions), particle physics (standard model, detectors), radiation interactions with matter, radiation detection and measurements.
• Advanced and elective options: Accelerator physics fundamentals, medical physics introduction, instrumentation, independent study and directed readings in topics aligned to faculty expertise.
• Capstone experience: A senior project or thesis involving experimental work, data analysis or a literature-based research project, often supervised by physics faculty and sometimes linked to external laboratory partners.

Entry requirements

Applicants are expected to meet Eastern Washington University’s undergraduate admission standards and to present a strong background in mathematics and science from high school. Typical preparation includes algebra, precalculus or calculus, and high-school physics; completion of first-year calculus and physics courses may be required for entry into the major or for placement.

• Academic preparation: High-school diploma or equivalent with strong grades in mathematics (calculus recommended) and physics or chemistry.
• Course placement: Students may be placed into appropriate first-year calculus and physics sequences based on prior coursework and placement testing.
• Transfer students: Transfer credit for first-year calculus and physics is commonly accepted; transcripts are reviewed to determine fulfilment of major prerequisites.
• Additional considerations: Demonstrated quantitative ability, problem-solving skills and interest in laboratory work. Prospective students are encouraged to contact the physics department for advising on preparation and course planning.

Career prospects

Graduates with a physics degree concentrating on nuclear and particle topics have a range of career paths. Many proceed to graduate study (master’s or PhD) in physics, nuclear engineering or medical physics; others enter the workforce directly in technical roles.

• Research positions at national and regional laboratories, including work in detectors, radiation measurement and accelerator-related projects.
• Roles in radiation protection, health physics and environmental monitoring for industry and healthcare institutions.
• Technical roles in instrumentation, electronics, data analysis and software development for scientific and engineering firms.
• Further professional training leading to careers in medical physics, nuclear engineering or teaching physics at the secondary level.
• Transferable careers in finance, data science and consultancy, where strong quantitative and problem-solving skills are valued.

Why study at Eastern Washington University

Eastern Washington University offers small classes and accessible faculty, which benefits students pursuing experimental and specialised areas like nuclear and particle physics. The department emphasises undergraduate research, enabling students to work on hands-on projects and senior theses under faculty supervision.

• Undergraduate research opportunities: Faculty-led projects and summer research can provide practical experience in detector work, data analysis and instrumentation.
• Regional connections: Proximity to regional research centres and national laboratories gives opportunities for internships and collaborations that complement campus training.
• Facilities and support: Teaching and research labs, electronics workshops and computing resources support both coursework and independent projects.
• Student community and professional development: Student chapters of professional societies, career services and academic advising help students prepare for graduate study and technical careers.