Emory University

What you'll study

The degree combines a sequence of required foundational courses with elective and advanced modules that allow students to focus on particular areas of interest. Typical components include:

• Foundations: classical mechanics, electromagnetism, quantum mechanics and statistical physics to provide the theoretical basis for astrophysical phenomena.
• Mathematical and computational tools: calculus, differential equations, linear algebra, numerical methods and scientific programming for data analysis and modelling.
• Core astronomy and astrophysics: introductory astronomy, stellar structure and evolution, interstellar medium, galaxy structure and dynamics, high‑energy astrophysics and cosmology.
• Observational methods and instrumentation: practical training in telescope use, optical and radio techniques, spectroscopy, CCD imaging, and instrument calibration and data reduction.
• Laboratory and project work: physics labs, observational projects, and courses that emphasise experiment design, measurement and error analysis.
• Research experience: opportunities for supervised, credit-bearing research with faculty in topics such as exoplanets, stellar populations, galaxy evolution, computational astrophysics and instrumentation.

Entry requirements

Admission to Emory is competitive and applicants to the Astronomy and Astrophysics pathway are expected to demonstrate strong preparation in STEM subjects. Typical expectations include:

• A high school diploma or equivalent with a strong record in mathematics and the physical sciences.
• Prior coursework in calculus and physics is recommended; advanced placement or A‑level credits in mathematics, physics or related subjects are advantageous.
• Application materials such as a personal statement and letters of recommendation that speak to quantitative ability, curiosity about astronomy and preparation for rigorous science coursework.
• Emory operates a holistic admission process; standardised testing policies may vary, so applicants should consult the university for current guidance.

Career prospects

Graduates leave the programme with strong analytical, computational and problem‑solving skills that are valued across many sectors. Common career and further study paths include:

• Graduate study in astronomy, astrophysics or physics leading to research careers in academia or national laboratories.
• Positions in observatories, planetariums or public outreach organisations.
• Data science, software development and quantitative roles in industry where experience with large datasets and computational modelling is essential.
• Instrumentation and engineering roles that support telescopes, satellites and scientific experiments.
• Education and science communication at secondary and higher education levels.

Why study at Emory University

Emory offers a liberal‑arts environment combined with a research‑active physics department, giving undergraduates small‑class teaching alongside access to research projects. Students benefit from close faculty mentoring, interdisciplinary options across the sciences and mathematics, and practical experience with observational facilities and computing resources on campus. Located in Atlanta, Emory students also have opportunities to engage with a broader regional research ecosystem and industry partners for internships and collaborative projects. The programme is well suited to students seeking a solid foundation for either professional work or further postgraduate study in astrophysics.