
The Biophysics program offers students an integrated study of physics, biology, and chemistry, emphasizing quantitative analysis, experimental methods, and problem-solving. Students explore the physical principles underlying biological systems, including molecular dynamics, cellular mechanics, and biophysical interactions. Courses cover mechanics, thermodynamics, quantum mechanics, molecular biology, and computational modeling, combining theoretical approaches with hands-on laboratory research. Students gain practical experience in experimental design, data collection, computational simulations, and interdisciplinary analysis, preparing them to address complex questions at the intersection of physics and biology.
Throughout the program, students develop strong analytical, research, and technical skills essential for careers in biotechnology, biomedical research, healthcare, and scientific innovation. Exposure to interdisciplinary approaches ensures graduates are equipped to tackle challenges in molecular and cellular research, medical technology, and quantitative modeling. By fostering independent inquiry, applied experimentation, and computational research, the program prepares students to contribute meaningfully to scientific discovery, technological development, and professional initiatives in biophysics and related fields.
Year 1 – Foundations in Biophysics
• General Physics I and II
• Calculus and Linear Algebra
• Introduction to Molecular and Cellular Biology
• Academic Writing and Research Skills
Year 2 – Core Biophysics and Quantitative Methods
• Thermodynamics and Statistical Mechanics
• Biophysical Chemistry
• Computational Modeling and Simulation
• Elective Modules in Molecular Biology, Biochemistry, or Physics
Year 3 – Advanced Biophysical Research
• Structural Biology and Molecular Dynamics
• Experimental Biophysics Techniques
• Research Project or Laboratory Internship
• Seminar in Biophysical Analysis
Year 4 – Independent Research and Capstone Project
• Independent Research Project or Thesis
• Advanced Topics in Biophysics
• Data Analysis and Interpretation
• Capstone Project Presentation
Graduates of this program are prepared for careers in biotechnology, biomedical research, healthcare, pharmaceutical development, and academic research. They can work in research laboratories, biotechnology firms, hospitals, medical device companies, and governmental or non-governmental scientific organizations. The program equips students with strong quantitative, experimental, and analytical skills, enabling them to pursue roles in biophysical modeling, molecular analysis, medical technology development, laboratory research, and scientific consulting. Alumni may also continue their education in graduate programs in biophysics, molecular biology, biomedical engineering, or medicine, or take leadership roles in research and development projects, providing versatile and highly competitive career pathways in science and technology.
This program combines quantitative skills, biological knowledge, and experimental expertise, giving students a comprehensive understanding of biophysical principles and applications. Small classes and faculty mentorship provide personalized guidance, fostering independent research, analytical thinking, and problem-solving. The curriculum emphasizes interdisciplinary learning, hands-on experimentation, and computational modeling, preparing graduates to address complex scientific, technological, and biomedical challenges. By engaging with laboratory experiments, computational simulations, and independent research, students gain the knowledge, technical expertise, and experience necessary for impactful careers in biophysics, biotechnology, healthcare, research, and further academic 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