Clark University

What you'll study

The curriculum builds a solid core in classical mechanics, electromagnetism, quantum mechanics and statistical physics, then progresses to specialised modules that examine the structure of nuclei, elementary particles and the interactions that govern them. Students take sequential lecture courses paired with laboratory work to develop experimental technique, error analysis and data handling.

• Core physics sequence: introductory mechanics, electromagnetism, modern physics and intermediate quantum mechanics.
• Advanced and specialised topics: nuclear physics, particle physics, quantum field concepts at an introductory level, and topics in nuclear instrumentation and radiation detection.
• Laboratory and practical work: intermediate and advanced physics labs emphasising measurement, electronics, detector use and experimental design.
• Computational physics and data analysis: numerical methods, programming for physicists and statistical data analysis applied to experimental datasets.
• Mathematics for physics: calculus sequence, differential equations, linear algebra and mathematical methods for physicists.
• Research and capstone: an independent research project, senior thesis or participation in a faculty-led research group, often supported by departmental seminar series.
• Electives and interdisciplinary options: courses in condensed matter, astrophysics, medical physics, instrumentation, and opportunities to take related courses in computer science, engineering or mathematics.

Entry requirements

Applicants should have a strong secondary-school record with particular strength in mathematics and physics. Typical preparation includes completion of algebra, geometry, trigonometry and calculus where available, alongside high-school physics. Admissions will consider overall academic performance, letters of recommendation, and a personal statement that describes interest in physics and research.

While standardised test scores may be submitted where useful, Clark assesses applications holistically and places emphasis on coursework, demonstrated quantitative ability and readiness for a demanding STEM curriculum. Students without prior laboratory experience are still welcome but should expect to complete introductory lab work in the first year.

Career prospects

Graduates with a physics degree specialising in nuclear and particle physics pursue a range of careers. Many move on to graduate study (PhD or master’s) in physics, nuclear engineering or related fields. Others find roles in applied research at national laboratories, accelerator facilities and industrial research centres.

• Research scientist or technician in national labs and research institutes
• Medical physics and radiation protection roles (with appropriate postgraduate or certification pathways)
• Instrumentation, detector development and engineering positions in industry
• Data analysis, software development and quantitative roles in finance, technology and analytics
• Teaching at secondary or community-college level, often following teacher training
• Regulatory, consulting and technical roles in energy, healthcare and security sectors

Why study at Clark University

Clark emphasises close faculty-student interaction and early involvement in research, making it well suited to undergraduates who want hands-on experience in experimental and theoretical projects. The department maintains small class sizes and active seminar programmes that connect students with faculty research in nuclear and particle physics and related areas.

Located in Worcester with ready access to research institutions and internship opportunities in the Greater Boston region, Clark provides pathways to summer research placements, collaborative projects and industry contacts. The university’s interdisciplinary culture supports combining physics study with computing, mathematics or policy courses for a broader career preparation.