Seattle University

What you'll study

The programme provides a broad foundation in classical and modern physics with specialised study in nuclear and particle physics. Core physics courses typically include classical mechanics, electromagnetism, quantum mechanics, statistical mechanics and modern physics, all supported by a full sequence of laboratory courses that emphasise experimental technique, data analysis and uncertainty estimation.

• Foundations: calculus-based mechanics and electromagnetism, multivariable calculus and differential equations that underpin advanced topics.
• Core physics: intermediate and advanced quantum mechanics, thermal and statistical physics, and modern/relativistic physics.
• Nuclear and particle topics: introduction to nuclear physics, particle physics and interactions, nuclear structure and decay, detectors and instrumentation, and radiation interaction with matter.
• Laboratory and experimental work: extensive lab courses, electronics for physicists, radiation detection labs, and opportunities for capstone or senior research projects involving experimental design, data acquisition and analysis.
• Computational tools: scientific programming (often Python or MATLAB), numerical methods for solving physics problems, and data analysis techniques relevant to large datasets from detectors or simulations.
• Jesuit liberal arts component: Seattle University’s core curriculum complements technical training with writing, ethics, communication and interdisciplinary learning that develop professional and ethical judgement.

Entry requirements

Applicants are normally expected to hold a secondary/high school diploma or equivalent with strong preparation in mathematics and science. Typical preparation includes high school calculus and physics; coursework in chemistry is advantageous. Seattle University evaluates applications holistically, considering academic record, letters of recommendation, and a personal statement.

• Academic background: strong performance in mathematics (calculus) and physics courses; familiarity with algebra, trigonometry and basic lab experience is helpful.
• Standardised tests & alternatives: Seattle University has test-optional policies for some applicants; check the university’s admissions guidance for current practice regarding SAT/ACT submission.
• International students: equivalent secondary-school credentials and proof of English language proficiency (e.g. TOEFL, IELTS) if required by the admissions office.
• Transfer students: transfer credit for college-level calculus, physics and general education courses is considered; applicants should provide official transcripts and course descriptions.

Career prospects

Graduates with a physics degree and an emphasis on nuclear and particle physics have diverse career options. Many continue to graduate study (MSc or PhD) in physics, nuclear engineering or related disciplines to pursue research roles in academia or national laboratories.

• Research scientist positions at universities, national labs or research institutes (often following graduate study).
• Roles in medical physics, radiation safety and health physics (typically requiring further specialised training or certification).
• Technical and engineering positions in instrumentation, detector development, accelerator technology and applied physics industries.
• Data science, software development and quantitative roles in industry and technology firms that value strong analytical and computational skills.
• Secondary‑school science teaching (with appropriate teacher certification) and science communication.

Why study at Seattle University

Seattle University offers a small‑class environment that emphasises close faculty mentoring, undergraduate research opportunities and experiential learning. The physics programme’s lab-focused curriculum and senior research capstone give students practical experience in measurement, instrumentation and data analysis.

• Location advantages: situated in the Seattle region, students benefit from proximity to major research institutions and tech companies, which supports internship and collaboration opportunities.
• Undergraduate research: faculty-led research projects and senior theses let students gain hands-on experience central to careers in experimental physics.
• Interdisciplinary preparation: the university’s liberal arts and ethics emphasis complements technical training, preparing students for leadership and responsible practice in scientific careers.
• Career support: university career services and departmental advising help students plan for graduate school, internships and jobs in both research and applied sectors.