Brandeis University

What you'll study

The physics major with a concentration in nuclear and particle physics builds a strong grounding in classical and modern physics before moving into specialised topics. Coursework emphasises mathematical methods, computational techniques, and experimental skills alongside theoretical foundations.

• Core foundation courses: calculus-based mechanics, electromagnetism, thermodynamics and statistical mechanics, and introductory quantum mechanics.
• Advanced theory: intermediate and advanced quantum mechanics, relativistic quantum mechanics/field theory introductions, and nuclear/particle theory topics.
• Specialist modules: nuclear physics, particle physics, accelerator physics concepts, detector physics, and radiation interactions with matter.
• Laboratory and practical work: intermediate and advanced experimental labs, hands-on detector or instrumentation projects, and courses in experimental methods and data analysis.
• Computational training: scientific programming, numerical methods, and data analysis tools commonly used in high-energy and nuclear physics.
• Research and capstone: an emphasis on undergraduate research through faculty-led projects, a senior thesis or practicum in experimental/theoretical research, and opportunities to present results at departmental seminars.
• Electives and interdisciplinary options: astrophysics, condensed matter, applied mathematics, and courses in neighbouring departments (computer science, chemistry, engineering) to support cross-disciplinary work.

Entry requirements

Applicants are expected to demonstrate strong preparation in mathematics and science. Typical qualifications and preparation include:

• A strong high-school record with calculus and physics; additional coursework in advanced mathematics or physics is advantageous.
• Familiarity with problem-solving and quantitative reasoning; experience with laboratory work or independent projects is desirable.
• For international applicants, equivalent national secondary qualifications showing high achievement in mathematics and physics are expected.
• Successful applicants typically show evidence of curiosity about research and independent learning; letters of recommendation and a personal statement outlining scientific interests strengthen an application.

Career prospects

Graduates with a physics degree concentrating in nuclear and particle physics are well placed for a range of careers that value quantitative, analytical and experimental skills.

• Research and academia: many alumni pursue graduate study (PhD or MSc) in nuclear physics, particle physics, astrophysics, or related physical sciences and then careers in research or teaching.
• National and accelerator laboratories: opportunities at national labs, accelerator facilities and experimental collaborations in areas such as detector development, instrumentation and data analysis.
• Industry and technology: roles in data science, software engineering, instrumentation engineering, and high-tech R&D where modelling, simulation and experimental skills are valued.
• Healthcare and energy: pathways into medical physics, radiation safety, and energy-sector roles that require physics knowledge and measurement expertise.
• Finance and consulting: quantitative roles that leverage strong numerical problem-solving and modelling abilities.

Why study at Brandeis University

Brandeis offers a close-knit physics department where undergraduate teaching and research are both priorities. Small class sizes and accessible faculty mean students frequently work directly with professors on current research projects.

• Undergraduate research emphasis: the department encourages students to join experimental and theoretical groups, gaining hands-on experience and often producing senior theses or conference presentations.
• Proximity to a regional research ecosystem: located near Boston, Brandeis students can access seminars, collaborations and internship opportunities with research institutions and technology companies in the area.
• Interdisciplinary opportunities: easy cross-registration with neighbouring departments supports tailored study paths combining physics with computation, engineering, or applied sciences.
• Preparation for next steps: the programme’s balance of theory, experimentation and computation equips graduates for competitive graduate programmes, laboratory positions, and a wide range of quantitative careers.