University of Kansas

What you'll study

The PhD programme combines advanced coursework, supervised research, and teaching experience. In the early years students complete graduate-level core courses in classical and quantum mechanics, statistical mechanics, and electrodynamics, followed by specialised courses and seminars in nuclear and particle physics.

• Core and advanced coursework: Quantum field theory, nuclear structure and reactions, particle physics phenomenology, experimental methods in nuclear and particle physics, and advanced computational physics.
• Research components: Experimental students typically work on detector development, data acquisition, and analysis within international collaborations; theoretical students work on model building, calculations in nuclear many-body theory, or phenomenology of particle interactions.
• Laboratory and collaboration experience: Opportunities to participate in large-scale experiments and collaborations, including work related to collider experiments, neutrino physics, and nuclear instrumentation.
• Seminars and qualifying exams: Regular departmental seminars, journal clubs and a qualifying or preliminary examination to progress to candidacy.
• Dissertation: Original research conducted under a faculty advisor leading to a written dissertation and public defence.
• Teaching experience: Graduate students usually gain teaching experience through teaching assistantships or supervised instruction.

Entry requirements

Applicants are expected to hold a strong bachelor's degree in physics or a closely related discipline; many successful applicants also hold a master's degree. Applicants should demonstrate solid preparation in undergraduate physics and mathematics, including courses in classical mechanics, quantum mechanics, electrodynamics and mathematical methods.

• Academic transcripts: Official transcripts showing strong performance in core physics and mathematics courses.
• Research experience: Evidence of research potential is important — this can include undergraduate or master's research projects, publications, or detailed descriptions of laboratory experience.
• Letters of recommendation: Typically three academic or professional references who can speak to the applicant's research aptitude and preparedness for doctoral study.
• Personal statement / research statement: A statement outlining research interests and how they align with faculty expertise in nuclear and particle physics.
• English language proficiency: For applicants whose first language is not English, proof of English proficiency is required in accordance with university policy.
• Funding and assistantships: Admission is normally to funded positions through teaching or research assistantships; prospective students should consult the department for details and any additional application materials.

Career prospects

Graduates from this programme enter a wide range of careers that capitalise on their expertise in experimental technique, theoretical modelling, instrumentation and data analysis.

• Academia: Postdoctoral positions and faculty appointments in universities and research institutes, continuing research in nuclear and particle physics.
• National and international laboratories: Roles at national labs and international facilities involved in accelerator science, detector development, neutrino experiments and nuclear physics research.
• Industry and technology: Positions in advanced instrumentation, semiconductor and detector industries, aerospace, and engineering firms that value experimental and quantitative skills.
• Data science and software: Data analysis, machine learning, and computational modelling roles in finance, technology and consulting sectors.
• Science policy and communication: Opportunities in science administration, outreach, and policy where deep technical knowledge and communication skills are required.

Why study at University of Kansas

The University of Kansas Department of Physics & Astronomy offers a collaborative environment with active research groups in nuclear and particle physics, including both experimental and theoretical programmes. Faculty maintain national and international research collaborations, providing students access to large experiments, modern instrumentation and high-performance computing resources.

• Active research collaborations: Students can join projects that connect to major experiments and international collaborations, gaining hands-on experience in detector work, data analysis and theory.
• Faculty mentorship: A relatively small but active department enables close mentoring relationships with faculty, facilitating tailored research training and professional development.
• Training opportunities: Teaching assistantships and research assistantships provide financial support while developing communication and instructional skills.
• Regional and professional connections: Proximity to national laboratories and a track record of placing graduates into postdoctoral roles and laboratory positions support professional networking and career progression.