University of Iowa

What you'll study

The programme is a four-year Bachelor of Science in Chemical Engineering structured around a core of transport phenomena, thermodynamics, reaction engineering and process control, with elective and specialised coursework in electrochemical engineering. Early years focus on mathematics, physics, general chemistry and introductory chemical engineering principles. Mid- and upper-level coursework introduces chemical engineering laboratory work, unit operations, process design and modelling.

Electrochemical specialisation options typically include courses and modules in:

• Electrochemical fundamentals — electrochemical kinetics, electrode processes and electrochemical thermodynamics.
• Energy conversion and storage — principles of batteries, fuel cells and supercapacitors, and their materials and system-level considerations.
• Corrosion and protection — mechanisms of corrosion, prevention and monitoring techniques.
• Materials for electrochemistry — conductive and ionic materials, catalyst design and characterization methods.
• Electrochemical engineering applications — industrial electrolysis, electrochemical synthesis, sensors and separations using electrochemical methods.
• Laboratory and design — hands-on lab courses in unit operations and measurement, dedicated electrochemical laboratory experiments, and a senior design/capstone project with an electrochemical focus option.

Students are encouraged to supplement coursework with undergraduate research projects in faculty laboratories, internships with industry partners, and interdisciplinary electives from chemistry, materials science and electrical engineering to deepen practical skills in instrumentation, materials characterisation and system integration.

Entry requirements

Applicants should hold a high school diploma (or equivalent) with a strong academic record in mathematics and science. Typical preparation includes completion of college-preparatory mathematics through calculus, high school chemistry and physics. Successful applicants demonstrate strength in problem solving, laboratory work and quantitative subjects.

Domestic applicants usually apply through the University of Iowa's undergraduate admissions process; international applicants must present equivalent secondary-school qualifications and demonstrate English proficiency through accepted tests or institutional pathways if required. Placement in first-year engineering mathematics and science courses may be determined by prior coursework or placement testing.

The programme is competitive; recommended preparation beyond minimums includes advanced mathematics, AP/IB or honours science courses where available, and extracurricular experience in engineering projects, research or relevant work experience.

Career prospects

Graduates with a chemical engineering degree emphasising electrochemical engineering have a range of career options in energy, manufacturing, environment and materials sectors. Common roles include:

• Process engineer or production engineer in chemical, electrochemical or electroplating industries.
• Battery and energy storage engineer, working on cell development, scaling and system integration.
• Fuel cell systems engineer and developer for stationary and transportation applications.
• Corrosion engineer and materials specialist focused on durability and protection strategies.
• R&D or project engineer in companies developing electrochemical sensors, electrolysis systems or speciality electrochemical products.
• Consulting roles in process optimisation, environmental compliance and materials selection.
• Further study at graduate level (Master’s or PhD) in chemical engineering, materials science, electrochemistry or related fields, and research careers in universities, national laboratories or industry research centres.

Many graduates also pursue internships and co-op placements during their studies that lead directly to entry-level positions; professional engineering licensure is a common pathway for those interested in long-term design and consulting careers.

Why study at University of Iowa

The University of Iowa offers an ABET-accredited chemical engineering programme within a college that emphasises close faculty mentoring, hands-on laboratory experience and access to interdisciplinary research. Students benefit from collaboration opportunities with chemistry and materials science groups, access to modern instrumentation and lab facilities, and a range of industry partnerships for internships and applied projects.

Iowa's engineering community supports undergraduate research, student chapters of professional societies, and capstone design projects that often connect students with regional and national employers in energy and manufacturing. The campus environment and engineering curriculum aim to prepare graduates with both the theoretical foundations and practical skills needed for careers in electrochemical engineering and related fields.