Dartmouth College

What you'll study

The programme builds from a core sequence in classical mechanics, electromagnetism, quantum mechanics and statistical physics, then moves into specialised topics in nuclear and particle physics. Typical modules and topics include:

• Introductory and intermediate mechanics and electromagnetism (including mathematical methods for physics)
• Modern physics and introductory quantum mechanics, expanding to advanced quantum theory
• Statistical mechanics and thermodynamics
• Nuclear physics: nuclear structure, decay modes, reactions and experimental techniques
• Particle physics: the Standard Model, symmetries, particle interactions and detectors
• Computational physics and data analysis, including programming for simulation and experimental data reduction
• Laboratory courses emphasising instrumentation, electronics and experimental design
• Advanced electives such as quantum field theory (introductory level), nuclear instrumentation, accelerator physics and detector development
• Senior research projects or a senior thesis conducted under faculty supervision, often linked to larger experimental collaborations or faculty research groups

The major normally requires completion of core physics courses, supporting mathematics (calculus, linear algebra and differential equations) and a set number of advanced electives and laboratory credits. Many students complement their studies with coursework in computer science, engineering, or applied mathematics depending on their interests.

Entry requirements

Admission to Dartmouth is competitive and based on a holistic review of academic achievement, recommendations and extracurricular engagement. Applicants intending to major in physics are expected to have:

• Strong prior preparation in mathematics (calculus and preferably multivariable calculus) and physics at the secondary or preparatory level
• High academic achievement relative to their educational context; successful applicants typically demonstrate advanced coursework where available (for example A‑levels, IB Higher Level, AP subjects or equivalent)
• Evidence of quantitative and problem‑solving ability, demonstrated through grades, teacher recommendations and any relevant projects or research experience
• For transfer applicants or those with prior university study, competitive college‑level performance in foundational mathematics and physics courses

Supplementary materials such as recommendation letters, a personal statement describing interest in physics and any research or laboratory experience strengthen an application. Specific course prerequisites for the major are provided by the physics department and advisers during orientation.

Career prospects

Graduates with a physics major concentrating in nuclear and particle physics pursue a variety of pathways. Many enter graduate school in physics or related fields to pursue research careers in academia or national laboratories. Other common directions include:

• Research and technical roles at national laboratories and research institutes, including experimental and instrumentation work
• Careers in data science, software development and quantitative analysis, where strong modelling and programming skills are valued
• Engineering and applied physics positions in industry, including roles in medical physics, instrumentation and materials
• Finance and consulting, where analytical training and problem‑solving abilities are sought
• Secondary and higher education teaching, often following additional certification or graduate study

Undergraduate research and senior thesis work are particularly valuable for students aiming for postgraduate research or technical careers, because they provide hands‑on experience with experimental techniques, data analysis and scientific communication.

Why study at Dartmouth College

Dartmouth offers a strong undergraduate‑centred physics education characterised by small class sizes, close faculty mentoring and extensive opportunities for hands‑on research. The physics department emphasises undergraduate involvement in faculty research, allowing students to contribute to experimental and theoretical projects and to present findings in senior theses.

The college's liberal arts environment encourages interdisciplinary study, enabling physics students to combine coursework in computer science, engineering, mathematics or other fields. Dartmouth's advising system and the flexibility of its academic calendar support sustained research internships and off‑campus collaborations with national laboratories and international research efforts. These features make Dartmouth especially attractive to students seeking a personalised undergraduate experience with early access to research in nuclear and particle physics.