A general physics major is a comprehensive program designed to provide students with a deep understanding of the fundamental principles governing the behavior of the physical world. This major typically covers a wide range of topics within physics, offering students a well-rounded education in various subfields of the discipline. Here's a detailed overview of what a general physics major entails:

1. Core Concepts: Students will delve into core concepts such as classical mechanics, electromagnetism, thermodynamics, and quantum mechanics. These fundamental principles form the foundation upon which more advanced concepts are built.
2. Mathematics: Physics is heavily intertwined with mathematics, and students can expect to take courses in calculus, differential equations, linear algebra, and mathematical methods in physics. Proficiency in mathematics is essential for understanding and solving complex physical problems.
3. Laboratory Work: Practical application of theoretical concepts is a crucial aspect of a physics major. Students engage in laboratory experiments to observe and analyze physical phenomena, apply theories, and develop experimental skills.
4. Electives and Specializations: While pursuing a general physics major, students often have the flexibility to choose elective courses that align with their interests. Specializations might include areas like astrophysics, condensed matter physics, particle physics, nuclear physics, and more.
5. Advanced Topics: In the latter years of the program, students may study advanced topics like quantum field theory, statistical mechanics, special and general relativity, and solid-state physics. These topics provide a deeper insight into the cutting-edge theories and research in physics.
6. Problem-Solving Skills: Physics majors develop strong analytical and problem-solving skills through rigorous coursework and tackling complex theoretical and experimental challenges. These skills are valuable in various industries beyond academia.
7. Computational Physics: As technology advances, computational methods play an increasing role in physics research. Students might learn how to use computer simulations to model physical systems and analyze their behavior.
8. Research Opportunities: Many undergraduate programs encourage or require students to participate in research projects under the guidance of faculty members. This hands-on experience helps students apply theoretical knowledge to real-world problems and gain insight into the scientific research process.
9. Capstone Projects: Some programs culminate in a capstone project where students work on a significant research project, often collaborating with peers and faculty. This project showcases their ability to apply acquired skills to solve complex problems.

• Northwestern University
• Dartmouth College
• Princeton University
• Carnegie Mellon University
• Columbia University in the City of New York
• University of Chicago
• California Institute of Technology
• University of Pennsylvania
• College of the Holy Cross
• Massachusetts Institute of Technology

• Princeton University Curriculam
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• University of Chicago Curriculam
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• University of Pennsylvania Curriculam
• College of the Holy Cross Curriculam
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• Northwestern University Curriculam
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