Florida State University

What you'll study

The programme begins with foundational coursework in calculus, physics and general chemistry before moving into core chemical engineering subjects. Typical modules include material and energy balances, thermodynamics, transport phenomena (momentum, heat and mass transfer), chemical reaction engineering, process control, separations and unit operations. Laboratories accompany many courses to develop practical skills in measurement, data analysis and safe process operation.

For students focusing on electrochemical engineering, the curriculum offers technical electives and project options covering electrochemistry, corrosion science, electrode and electrolyte materials, battery and fuel cell technology, electrochemical reactor design, and analytical electrochemical techniques. Computational and materials courses — such as materials science, computational methods for engineers and instrumentation — are commonly taken to support electrochemical topics. The degree culminates in a senior design capstone in which students apply engineering design, economics and safety to a real-world problem; students may select electrochemical-themed capstone projects or pursue undergraduate research with faculty working on energy storage, corrosion, or electrochemical processing.

Entry requirements

Applicants should demonstrate a strong background in mathematics (calculus) and the physical sciences, with high-school chemistry and physics recommended. Successful candidates typically have strong grades in STEM subjects and are prepared to take a calculus-based physics sequence in their first year. Florida State University accepts a range of qualifications from U.S. high schools and international systems; Advanced Placement (AP), International Baccalaureate (IB) and other recognised pre‑university credentials may be considered for credit or placement where appropriate.

Because the programme is rigorous and analytically focused, admissions selectors look for evidence of problem‑solving ability and preparation for college‑level STEM work. Prospective students should review the College of Engineering admissions guidance for details on documentation, placement testing and any mathematics or chemistry refresher recommendations before enrolment.

Career prospects

Graduates with a chemical engineering degree and electrochemical specialisation have a wide range of career paths. Common roles include process engineer, battery materials engineer, electrochemical R&D engineer, corrosion engineer, fuel cell systems engineer, and manufacturing engineer in industries such as energy storage, renewable energy, petrochemicals, specialty chemicals, and advanced manufacturing. Many alumni also move into technical consulting, product development, quality and reliability, or regulatory and environmental roles.

The degree also provides excellent preparation for graduate study in chemical engineering, materials science, electrochemistry, or related fields, which is a common route for students aiming for research, academic or highly specialised industrial positions.

Why study at Florida State University

Florida State University offers its chemical engineering programme through an established College of Engineering with ABET‑accredited curricula, hands‑on laboratory instruction and opportunities for interdisciplinary collaboration. Students interested in electrochemical topics can work with faculty engaged in battery, fuel cell and corrosion research and access campus resources such as materials and characterization facilities, specialised labs and computational support.

FSU’s location and industry connections present internship and cooperative education opportunities across energy, manufacturing and materials sectors, while student chapters of engineering societies and design teams provide practical experience and professional networking. The programme emphasises both theoretical understanding and applied problem solving, preparing graduates to enter the workforce or continue to advanced study.