Michigan State University

What you'll study

The programme provides a balanced curriculum in core physics and focused courses in astronomy and astrophysics. Early coursework builds mathematical and physical foundations—calculus, differential equations, classical mechanics, electromagnetism and introductory modern physics—followed by increasingly specialised astrophysics topics.

• Core physics and mathematics: calculus sequence, linear algebra, ordinary differential equations, classical mechanics, electromagnetism, quantum mechanics and statistical mechanics.
• Astrophysics and astronomy: stellar structure and evolution, radiative processes, galactic and extragalactic astronomy, cosmology, planetary science and interstellar medium.
• Observational and instrumental skills: astronomical techniques and laboratory, astronomical instrumentation, photometry and spectroscopy, telescope use and data reduction.
• Computational training: programming for scientists, numerical methods, data analysis, and handling large astronomical datasets.
• Capstone and research: options for an independent senior thesis or a faculty-mentored research project, often involving observing runs, archival data projects or instrument development.

Students typically combine lectures with hands-on lab courses, computing workshops and opportunities to contribute to active research groups. Electives allow concentration in areas such as observational astronomy, theoretical astrophysics, planetary science or instrumentation.

Entry requirements

Applicants should demonstrate strong preparation in mathematics and science. Typical expectations include high-school level calculus and physics; chemistry and programming experience are advantageous. Admissions decisions consider overall secondary-school performance, letters of recommendation and personal statements outlining interest in astrophysics.

• Academic background: strong grades in mathematics (including calculus) and physics; coursework in chemistry and computer science is helpful.
• Standardised tests and alternatives: where test scores are considered, strong quantitative performance strengthens an application; applicants should check current university policies on standardised testing.
• Transfer applicants: college transfer students need solid performance in transferable calculus and physics courses and should provide detailed transcripts and syllabi for review.
• International students: must meet the university's English-language proficiency requirements and provide equivalent academic records; documentation of completed academic preparation in maths and physics is recommended.

Career prospects

Graduates are prepared for a range of destinations. Many continue to graduate study in astronomy, astrophysics or physics; others enter technical and interdisciplinary roles that draw on strong quantitative, computational and problem-solving skills.

• Research and academia: graduate programmes in astronomy, astrophysics, planetary science and related fields; positions in university or national research facilities.
• Observatories and space science: observational support, telescope operations, science planning and mission support roles.
• Data science and software engineering: roles in big-data analysis, machine learning, scientific computing and software development across industry sectors.
• Government and national labs: technical and analytical positions in government research organisations and laboratories.
• Industry and engineering: aerospace, instrumentation, optics and remote-sensing industries where physics and instrumentation knowledge is applicable.
• Education and outreach: teaching at various levels, planetarium work and public engagement leveraging programme experience in communicating science.

Why study at Michigan State University

Michigan State University offers undergraduate students direct access to an active Department of Physics and Astronomy with faculty involved in observational, theoretical and instrumental projects. The university supports undergraduate research, enabling students to work alongside faculty on current projects and to gain experience with telescope observations, data analysis and instrument development.

• Hands-on facilities and outreach: opportunities to use on-campus observatory facilities and to participate in planetarium and community outreach programmes that strengthen communication skills.
• Interdisciplinary environment: collaboration across departments—physics, engineering, computer science and Earth and environmental sciences—broadens training and career options.
• Research and internship pathways: faculty connections and institutional support help students secure research positions, summer internships and placements with external observatories or space science programmes.
• Preparation for next steps: the curriculum is designed to provide the technical and analytic foundation needed for competitive graduate study or for immediate entry into quantitative and technical careers.