University of Chicago

What you'll study

The programme builds a firm foundation in mathematics, physics, general and physical chemistry, and core chemical engineering principles in the early years, then moves into advanced topics relevant to electrochemical systems. Early coursework typically covers calculus, linear algebra, differential equations, classical mechanics and thermodynamics alongside general chemistry and introductory laboratory work.

Major-specific modules progress to transport phenomena, reaction engineering, chemical thermodynamics, process control and materials science. Electrochemical-focused courses explore electrochemistry fundamentals, electrode kinetics, ion transport, battery and fuel-cell design, corrosion science, and electrochemical materials. Practical training is emphasised through experimental laboratory courses, instrumentation and measurement, and an upper-level design or capstone project. Students may also take electives in solid-state chemistry, nanomaterials, catalysis, computational modelling, and machine learning applied to materials and processes.

Undergraduate research is strongly encouraged and commonly pursued in faculty laboratories across the Department of Chemical & Biological Engineering and the Pritzker School of Molecular Engineering, enabling students to work on topics such as next-generation batteries, electrochemical catalysts, sensors and scale-up of electrochemical reactors.

Entry requirements

Applicants are expected to demonstrate strong preparation in mathematics and the sciences. Typical incoming students have substantial prior study in calculus and at least one year each of high-school chemistry and physics; additional background in advanced mathematics, chemistry or laboratory experience is advantageous. Admissions decisions are holistic and consider academic record, letters of recommendation, personal statement and evidence of quantitative ability and intellectual curiosity.

For applicants from different educational systems, successful candidates usually present qualifications equivalent to rigorous national secondary credentials with strong performance in STEM subjects. Prospective students should consult the university admissions pages for specific guidance on required documents and any standardised testing policies.

Career prospects

Graduates with a chemical engineering degree emphasising electrochemical engineering are well placed for roles in battery and energy storage companies, fuel-cell and hydrogen technology firms, corrosion control, materials and chemicals manufacturers, and industrial process engineering. Typical job titles include battery engineer, electrochemical engineer, process engineer, materials development engineer, corrosion engineer and R&D scientist.

Many alumni also continue to graduate study in chemical engineering, materials science, electrochemistry or related fields, and some transition into technology development, patent law, management consulting or entrepreneurship. The programme’s quantitative and laboratory training is widely valued in both industry and academic research.

Why study at University of Chicago

The University of Chicago offers rigorous, quantitatively driven engineering education combined with interdisciplinary research strengths. Students benefit from small class sizes, close mentorship from faculty, and access to laboratories and centres working on electrochemical science and energy technologies. Collaborative opportunities extend across departments and institutes, including ties to molecular engineering research and regional national-laboratory partnerships.

Undergraduates are supported in finding research placements, internships and entrepreneurial pathways, and the curriculum emphasises both theoretical understanding and hands-on laboratory and design experience to prepare students for technical careers or further study in electrochemical and energy-related fields.