University of Dayton

What you'll study

This programme provides a foundation in core physics and mathematics before moving to specialised astronomy and astrophysics topics. In the early years you will take calculus-based mechanics, electromagnetism, modern physics and laboratory courses alongside multivariable calculus and differential equations. Later modules typically cover observational astronomy, stellar structure and evolution, galactic astronomy, extragalactic astronomy and cosmology, plus courses in radiative processes and computational methods used in astrophysical modelling.

Practical work is emphasised: you can expect hands-on laboratory sessions, observing projects using campus telescopes or remote data sets, and the use of astronomical software and programming languages for data analysis. The degree usually culminates in a senior capstone project or independent research experience supervised by physics and astronomy faculty, allowing you to apply theoretical knowledge to real data and research questions.

Entry requirements

Applicants need a high-school completion qualification or equivalent. Successful candidates demonstrate strong achievement in mathematics and physics at secondary level; prior exposure to calculus and introductory physics is highly recommended. International applicants should present the equivalent academic credentials from their country and meet the university's English language requirements.

Because the programme is quantitatively demanding, applicants are advised to show evidence of problem-solving skills, laboratory experience where possible, and readiness for a curriculum with significant mathematics and programming components. Transfer students are considered and should provide transcripts showing preparation in calculus and introductory physics.

Career prospects

Graduates from an astronomy and astrophysics undergraduate programme have a range of career pathways. Many go on to graduate study (master's and PhD) in astrophysics, physics or related fields to pursue research or academic careers. Others move into applied roles that leverage analytical, computational and data-handling skills, including positions in data science, software development, aerospace and engineering, instrumentation and remote sensing.

Additional career directions include secondary-school science teaching (with appropriate certification), science communication and public outreach, laboratory and observatory technical roles, and roles in government or private research laboratories. The degree develops quantitative reasoning, programming, and scientific communication skills that are valued across technology and research sectors.

Why study at University of Dayton

The University of Dayton offers an undergraduate environment with relatively small class sizes and strong access to faculty, making it well suited to students seeking close mentorship in research and laboratory work. The physics department emphasises undergraduate research and experiential learning, giving students opportunities to undertake independent projects and gain practical skills in instrumentation, computing and data analysis.

Students benefit from the university's commitment to applied learning and community engagement, with support services for internships, co-curricular projects and career planning. The regional concentration of aerospace and technology firms provides additional avenues for practical experience and employment, while the university’s supportive campus community helps students develop both professionally and personally during their studies.