Columbia University

What you'll study

The undergraduate Chemical Engineering curriculum at Columbia combines core engineering science with specialised courses and laboratory work relevant to electrochemical engineering. Early years concentrate on mathematics, physics, general chemistry and core chemical engineering topics such as transport phenomena, thermodynamics and reaction kinetics. As you progress you will encounter more specialised subjects and options, typically including:

• Transport phenomena and reaction engineering: fluid mechanics, heat and mass transfer, and chemical reactor design.
• Physical chemistry and electrochemistry: electrochemical thermodynamics, electrode kinetics, and electrochemical methods.
• Materials for energy: solid‑state materials, polymers, thin films and interfaces as they relate to batteries, fuel cells and corrosion.
• Energy systems and sustainability: fundamentals of energy conversion, storage technologies, and lifecycle considerations.
• Laboratory and experimental methods: hands‑on lab courses in measurement techniques, electrochemical characterisation (e.g. cyclic voltammetry, impedance spectroscopy), and instrumentation.
• Computational and data methods: numerical methods, process modelling, and applied data analysis for materials and device performance.
• Design and capstone projects: team‑based design practicum that often addresses real‑world electrochemical device or process challenges.

Students can further tailor their programme through electives in materials science, mechanical engineering, earth and environmental engineering, or applied physics, and have opportunities to join faculty research groups, independent study projects, and industry internships.

Entry requirements

Applicants are expected to present a strong academic record with emphasis on mathematics (calculus), physics and chemistry. Typical preparation includes high‑level coursework in calculus and laboratory sciences; advanced placement, International Baccalaureate or equivalent qualifications are considered. Columbia uses a holistic admissions process that considers grades, letters of recommendation, personal essays and extracurricular accomplishments.

• Academic background: strong performance in mathematics and science courses, especially calculus, physics and chemistry.
• Standardised assessments: Columbia’s admissions policies on standardised testing evolve; applicants should check the university’s current guidance on test submission.
• International applicants: must demonstrate equivalent academic preparation and proficiency in English through recognised qualifications or exams where required.
• Recommended preparation: research experience, engineering or science competitions, laboratory coursework, and coursework in computer programming or data analysis strengthen an application.

Career prospects

Graduates with a chemical engineering degree and a focus in electrochemical engineering are sought after in sectors that include energy storage and conversion, advanced materials, industrial electrochemistry and environmental technologies. Common career pathways include:

• Battery and energy‑storage engineering for consumer, automotive and grid applications.
• Fuel cell and hydrogen production technologies, including electrolysis systems.
• Materials and surface engineering roles in companies developing electrodes, catalysts and protective coatings.
• Process engineering, scale‑up and manufacturing for electrochemical processes such as electroplating, electrolysis and chemical synthesis.
• Research and development in industry, national laboratories and academia; many graduates also pursue graduate study (MS/PhD) in chemical engineering, materials science or related fields.
• Complementary careers in technical consulting, patent law (with further qualifications), and technology‑oriented entrepreneurship.

Why study at Columbia University

Columbia offers an engineering education shaped by rigorous core requirements and the breadth of a major research university in New York City. Students benefit from interdisciplinary collaboration with departments such as Materials Science, Earth and Environmental Engineering, and Applied Physics, and have access to research laboratories, industry partnerships and internship opportunities across the metropolitan area.

The department emphasises close faculty mentorship, opportunities to join active research groups working on energy conversion, storage and electrochemical materials, and experiential learning through laboratory courses and capstone design. Columbia’s location provides direct contact with industrial partners, start‑ups and a broad network of alumni, supporting both technical development and career mobility.