Cost & earnings at University of Mary Washington What students borrow here, and what they go on to earn
The Bachelor’s programme in Physics at the University of Mary Washington with a focus on nuclear and particle physics provides a rigorous foundation in classical and modern physics combined with targeted study of subatomic phenomena. It suits students who seek a strong undergraduate preparation for research, graduate study or technical careers in areas such as nuclear instrumentation, particle physics, and related applied fields.
The physics major is a four‑year programme built on a sequence of calculus and core physics courses, laboratory work, and advanced electives that allow you to concentrate on nuclear and particle physics topics. Early years emphasise foundational subjects: classical mechanics, electromagnetism, introductory modern physics and laboratory techniques, alongside the required calculus sequence and linear algebra.
In later years you will take intermediate and advanced courses such as quantum mechanics, statistical mechanics, advanced laboratory methods, and mathematical methods for physicists. Nuclear and particle physics topics are covered through specialised electives that explore nuclear structure and reactions, particle properties and interactions, experimental methods in nuclear and particle detection, and applications of accelerator and detector technologies. Coursework is complemented by computational physics, data analysis, and electronics for instrumentation.
Students are encouraged to undertake independent research or a senior thesis under faculty supervision, engage in collaborative projects, and complete internships. The programme also supports cross‑disciplinary study with mathematics, computer science and chemistry to develop analytical, modelling and instrumentation skills essential for work in nuclear and particle physics.
Graduates with a physics degree emphasising nuclear and particle physics follow a range of career paths. Many proceed to graduate school in physics or related fields (nuclear physics, particle physics, medical physics, or engineering) to pursue research careers. Others enter technical roles in national laboratories, accelerator facilities, instrument and detector manufacturers, or companies specialising in radiation detection and nuclear instrumentation.
Additional career options include data science and analytics, software development for scientific applications, engineering technician and instrumentation roles, teaching at secondary and community college levels, and positions in government, regulatory agencies, and industrial research. The analytical, quantitative and experimental skills developed in the programme are also valued in finance, consulting and technology sectors.
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