Columbia University

What you'll study

The programme combines core courses in the physical sciences with disciplined training in mathematics and laboratory methods. You will typically take calculus-based mechanics and electromagnetism, introductory and advanced courses in quantum theory and statistical mechanics, and laboratory sequences that develop experimental technique and data analysis skills. Depending on your pathway, coursework can include physical chemistry, materials and condensed-matter physics, atmospheric and earth sciences, optics and spectroscopy, and computational methods for modelling physical systems.

Structure normally blends core required modules, major-specific electives and open electives drawn from related departments (physics, chemistry, earth and environmental sciences, applied mathematics and engineering). Many students augment coursework with independent study or a senior research project under faculty supervision, and there are opportunities for summer research placements in campus laboratories and affiliated research centres.

Entry requirements

Admission to Columbia undergraduate programmes is competitive. Successful applicants typically present a strong academic record with advanced coursework in mathematics (including calculus) and at least one laboratory science (physics or chemistry). Admissions evaluate academic transcripts, letters of recommendation, and personal statements that demonstrate intellectual curiosity and preparation for rigorous quantitative study. Relevant extracurricular engagement—such as science clubs, research internships, or programming experience—strengthens an application. Applicants to Columbia Engineering follow a related but distinct admissions route with an emphasis on engineering preparation.

Career prospects

Graduates leave with a versatile set of analytical, laboratory and computational skills valued across sectors. Common pathways include:

• Further study in graduate or professional programmes (physics, chemistry, geosciences, materials science, applied mathematics, medicine)
• Research roles in academic, government or industrial laboratories
• Technical positions in technology companies, materials and energy firms, environmental consultancies, and instrumentation companies
• Data- and quantitative-focused roles in finance, consulting and software
• Science communication, policy, and education

Many alumni combine subject knowledge with internships and undergraduate research to move into specialised careers or competitive doctoral programmes.

Why study at Columbia University

Columbia offers access to world-class faculty across a dense, research-intensive campus in New York City, enabling collaborations across physics, chemistry, earth sciences and engineering. Undergraduates benefit from small-group instruction in lab courses, research opportunities in campus departments and affiliated institutes (including earth-observatory facilities and interdisciplinary research centres), and the intellectual breadth provided by Columbia's Core Curriculum. The university's location also gives direct links to industry, national laboratories and museums, supporting internships and post-graduation employment in a wide range of scientific and technical fields.