Central Washington University

What you'll study

The programme builds core physics knowledge in classical mechanics, electromagnetism, quantum mechanics and statistical mechanics, then applies those foundations to nuclear and particle physics topics. You will take sequential courses in calculus‑based physics and mathematics (calculus, differential equations, linear algebra), laboratory courses that emphasise measurement and instrumentation, and dedicated courses covering nuclear structure, radioactive decay, radiation interactions with matter, detectors and instrumentation, and an introduction to particle physics and the Standard Model.

Typical modules and learning experiences include:

• Core physics: Classical Mechanics, Electromagnetism, Quantum Mechanics, Thermal/Statistical Physics
• Nuclear and particle topics: Nuclear Physics, Radiation Physics, Particle Physics/Intro to High‑Energy Physics
• Experimental and applied skills: Advanced Physics Laboratory, Electronics for Physicists, Detector Technology and Radiation Measurement
• Computational methods: Computational Physics, Data Analysis and Programming (often using Python/Matlab and numerical methods)
• Mathematics sequence: Calculus I–III, Differential Equations, Linear Algebra as supporting tools
• Capstone and research: Senior research project or thesis, practicum or internship options supervised by physics faculty

Undergraduate research is emphasised: students typically work alongside faculty on experiments, simulations or instrumentation projects and present results at campus symposia or regional conferences.

Entry requirements

Applicants are expected to have completed secondary school with strong preparation in mathematics and science. Typical preparation includes high‑level mathematics up to calculus (or equivalent placement) and university or high‑school physics. Admission decisions consider overall academic record and preparation in quantitative subjects.

Specific expectations commonly include:

• High school diploma or equivalent with strong grades in mathematics and physics
• Calculus readiness demonstrated by prior coursework or placement testing
• For transfer students, college transcripts showing completion of introductory calculus and physics courses
• International applicants should demonstrate equivalent academic preparation and English language competence where required

Prospective students who lack certain prerequisites are often able to make up required courses during the first year; academic advising helps plan the sequence to stay on track for the major.

Career prospects

Graduates with a BSc in Physics specialising in Nuclear and Particle Physics pursue a range of careers. Many continue to postgraduate study (Masters/PhD) in experimental or theoretical physics, nuclear engineering, medical physics or related fields. Direct employment pathways include technical and laboratory roles in nuclear power and energy companies, radiation safety and health physics, instrumentation and detector development, and analytical roles in government or private research laboratories.

Other typical career outcomes:

• Laboratory technician or research assistant in university or national laboratories
• Radiation protection specialist or health physicist (often requiring certification or further training)
• Instrumentation, electronics and detector engineering in industry
• Data analyst, software developer or quantitative roles in finance and technology (leveraging strong numerical skills)
• Secondary school physics teacher (with additional teacher certification)

The programme’s emphasis on hands‑on laboratory work, data analysis and undergraduate research gives graduates practical skills valued by employers and by graduate programmes.

Why study at Central Washington University

Central Washington University offers small class sizes and accessible faculty who are engaged in research and student mentorship, which benefits undergraduates seeking close supervision for projects and laboratory training. The physics department emphasises experiential learning: students routinely participate in funded research, senior capstone projects and regional conferences.

CWUs campus laboratories provide training in modern instrumentation, electronics and computational analysis appropriate to nuclear and particle physics applications. The programme also supports internships and collaborative projects with regional industry and research organisations, helping students build professional experience and contacts. For students who wish to continue in research or advanced technical careers, the degree provides a strong, practical preparation and clear pathways to graduate study or employment in the nuclear and related sectors.