
The Bachelor of Arts in Physics is a four-year interdisciplinary program that provides students with a strong foundation in the principles of classical and modern physics. Students explore mechanics, electromagnetism, quantum mechanics, thermodynamics, and optics, developing analytical, mathematical, and experimental skills essential for understanding physical phenomena. The program emphasizes problem-solving, critical thinking, and scientific reasoning, preparing students to analyze complex systems, design experiments, and apply theoretical concepts to real-world challenges in science, engineering, and technology.
Throughout the program, students engage in laboratory work, computational modeling, and research projects that integrate theoretical understanding with practical application. The curriculum encourages quantitative analysis, experimental design, and technical communication, enabling students to investigate physical systems rigorously. By combining classroom instruction with hands-on experimentation and independent research, graduates develop the intellectual flexibility and methodological expertise necessary for scientific inquiry, technological innovation, and interdisciplinary collaboration.
Year 1 – Foundations in Physics
• General Physics I & II with Lab
• Calculus I & II
• Academic Writing and Research
• Introduction to Scientific Methods
Year 2 – Core Physics Concepts
• Classical Mechanics
• Electromagnetism
• Multivariable Calculus
• Linear Algebra and Differential Equations
Year 3 – Advanced Physics
• Quantum Mechanics
• Thermodynamics and Statistical Mechanics
• Optics and Wave Phenomena
• Elective: Computational Physics / Astrophysics
Year 4 – Integration and Capstone
• Senior Research Project or Thesis
• Advanced Elective: Nuclear Physics / Condensed Matter Physics
• Laboratory Techniques and Experimental Physics
• Seminar in Physics and Applied Research
Graduates of the Physics program are prepared for careers in scientific research, engineering, data analysis, education, technology development, and applied physics. They may also pursue graduate studies in physics, engineering, astrophysics, computational science, or related fields, further expanding professional and academic opportunities. Employers value graduates’ analytical reasoning, problem-solving abilities, and quantitative skills, enabling them to contribute effectively in research laboratories, technology firms, government agencies, and academic institutions. Alumni are equipped to address complex scientific challenges, innovate in technological applications, and pursue leadership roles in analytical and research-driven environments.
This program is ideal for students passionate about understanding the fundamental laws of nature and applying scientific principles to solve complex problems. Emory University offers a rigorous, research-focused curriculum with access to modern laboratories, expert faculty mentorship, and experiential learning opportunities. The program emphasizes critical thinking, experimental skills, and interdisciplinary application, preparing graduates to excel in scientific, technological, and academic careers. Students leave the program with strong analytical capabilities, technical proficiency, and research experience, ready to contribute meaningfully to science, education, and innovative problem-solving in a variety of professional and scholarly contexts.
For further information, please contact the admissions office at:
Phone: +1 404 727 6123
Email: contentedit@emory.edu
Address: University of Emory, 201 Dowman Drive, Atlanta, GA 30322, United States