Loyola University Chicago

What you'll study

The programme combines a broad foundation in classical and modern physics with targeted study of nuclear and particle physics. Core coursework typically includes classical mechanics, electromagnetism, quantum mechanics, statistical mechanics, and mathematical methods for physicists. Specialized courses and modules you can expect include nuclear physics, particle physics, radiation physics, detector instrumentation, accelerator physics, and computational physics.

Laboratory and practical components are emphasised: introductory and advanced physics labs develop experimental technique, data analysis and uncertainty estimation. Undergraduate research is a central feature — students often undertake a faculty-mentored research project or senior thesis in areas such as nuclear spectroscopy, detector development, particle data analysis, or radiation measurement. Coursework is supported by computational training (programming, numerical methods, data analysis) and elective choices from astronomy, materials science, or applied mathematics to tailor the degree toward experimental, theoretical or applied interests.

• Foundations: introductory physics sequence with calculus, mathematical methods
• Core theory: classical mechanics, electrodynamics, quantum mechanics, statistical physics
• Specialist modules: nuclear physics, particle physics, radiation and detector physics
• Practical training: advanced laboratory, research project or senior thesis, computational physics
• Electives: astrophysics, condensed matter, instrumentation, data science or applied mathematics

Entry requirements

Applicants should hold a high-school diploma or equivalent with a strong background in mathematics and science. Successful candidates typically have completed high-school calculus and physics; chemistry is also recommended. Admissions assess a combination of academic transcripts, personal statement, and letters of recommendation. Standardised test scores (such as SAT or ACT) may be optional depending on the entry cycle; consult the university's admissions guidance for current policy. International applicants will need to demonstrate English proficiency through recognised tests or credentials unless exempt.

For transfer or advanced-entry students, credit for prior university-level calculus and physics courses can be evaluated. Students interested in the nuclear and particle physics track are encouraged to seek early advising to plan prerequisite coursework and research opportunities.

Career prospects

Graduates are well prepared for a range of pathways. Many continue to graduate study in physics, specialising in nuclear, particle or accelerator physics, while others move into applied physics, medical physics, or engineering. The quantitative, programming and experimental skills gained also translate into careers in data science, software development, instrumentation, energy and national laboratories.

Specific employment settings for alumni include national research facilities (for example nearby national labs), university research groups, medical and health physics departments (clinical dosimetry and radiation safety), scientific instrumentation companies, and technology firms. Teaching at secondary or post-secondary levels is another common route, often combined with certification or further training.

Why study at Loyola University Chicago

Loyola's Physics Department offers a small-college atmosphere within a large urban research environment. Students benefit from close faculty mentoring, accessible laboratory facilities, and a Jesuit liberal-arts education that emphasises critical thinking and ethical responsibility. The university's location in the Chicago area provides easy access to internship and collaboration opportunities with regional research institutions and national laboratories.

Undergraduate research is strongly supported, giving students hands-on experience and the chance to present results at conferences or co-author publications. Advising, career services and interdisciplinary electives allow students to customise their degree for academic or professional goals, while strong computational and experimental training prepares graduates for both advanced study and a broad spectrum of technical careers.