
The Physics program provides students with a deep understanding of fundamental physical principles, emphasizing analytical reasoning, quantitative skills, and problem-solving. Students explore mechanics, electromagnetism, thermodynamics, quantum mechanics, and modern physics while engaging in laboratory experiments that reinforce theoretical concepts. Courses combine rigorous mathematical training with hands-on experimentation, enabling students to analyze, model, and interpret physical phenomena. Students develop skills in experimental design, data analysis, computational modeling, and scientific communication, preparing them for advanced studies or professional roles that require strong quantitative and analytical abilities.
Throughout the program, students cultivate skills in critical thinking, research, and technical problem-solving essential for careers in physics, engineering, technology, and applied sciences. Exposure to interdisciplinary approaches, including mathematics, chemistry, and computational modeling, ensures graduates are well-equipped to tackle complex scientific challenges. By fostering independent inquiry, laboratory proficiency, and applied research, the program prepares students to contribute meaningfully to scientific discovery, technological innovation, and professional projects in both academic and industrial settings.
Year 1 – Foundations in Physics and Mathematics
• Classical Mechanics
• General Chemistry
• Calculus and Linear Algebra
• Academic Writing and Research Skills
Year 2 – Core Physics Principles
• Electromagnetism and Thermodynamics
• Quantum Mechanics I
• Laboratory Techniques in Physics
• Elective Modules in Mathematics or Computational Physics
Year 3 – Advanced Physics and Applied Research
• Quantum Mechanics II and Statistical Mechanics
• Modern Physics and Relativity
• Research Project or Laboratory Internship
• Elective Modules in Astrophysics, Materials Science, or Biophysics
Year 4 – Independent Research and Capstone Project
• Independent Research Project or Thesis
• Advanced Topics in Physics
• Data Analysis and Computational Modeling
• Capstone Project Presentation
Graduates of this program are prepared for careers in research, engineering, data analysis, technology development, education, and scientific consulting. They can work in academic and industrial research laboratories, technology firms, government agencies, energy companies, and educational institutions. The program equips students with expertise in quantitative analysis, experimental techniques, computational modeling, scientific communication, and problem-solving, enabling them to pursue versatile roles in physics research, applied technology, engineering, consulting, and education. Alumni may also continue their education in graduate programs in physics, engineering, applied sciences, or related fields, providing highly competitive and adaptable career pathways.
This program combines theoretical physics, experimental research, and applied problem-solving, giving students a comprehensive understanding of physical phenomena and scientific methods. Small classes and faculty mentorship provide personalized guidance, fostering independent research, analytical thinking, and technical competence. The curriculum emphasizes interdisciplinary learning, laboratory work, and computational analysis, preparing graduates to address complex challenges in research, technology, and applied sciences. By engaging with laboratory experiments, advanced coursework, and research projects, students gain the knowledge, technical expertise, and experience necessary for impactful careers in physics, engineering, data analysis, scientific consulting, and further graduate study.
For further information, please contact the admissions office at:
Phone: +1 212 854 1754
Email: admissions@columbia.edu
Address: University of Columbia, Admissions Office, New York, NY, United States