University of Tennessee

What you'll study

The programme combines a strong core chemical engineering curriculum with focused coursework and laboratory experience in electrochemical science and technology. Core subjects include calculus, differential equations, general and physical chemistry, physics, material science, transport phenomena, thermodynamics, and reaction engineering. Electrochemical-focused topics typically include electrochemistry, corrosion science, electrochemical energy conversion (fuel cells), battery science and engineering, electroplating and electrodeposition, and sensors.

Students undertake progressive laboratory and design experiences: introductory engineering labs, chemical engineering process labs, and specialised electrochemical labs where students work with cells, electrodes, and measurement techniques (potentiostats, impedance spectroscopy). The programme culminates in a senior capstone design project that often involves team-based design, process simulation and experimental validation. Elective options and research projects allow deeper study in materials for batteries, catalysis for electrochemical reactions, modelling of electrochemical systems, and scale-up of electrochemical processes.

• Mathematics for engineers (calculus, linear algebra, differential equations)
• Fundamentals of chemical engineering: transport phenomena, thermodynamics, reaction engineering
• Core chemistry and materials science
• Electrochemistry and corrosion
• Batteries, fuel cells and energy conversion
• Process control, safety and unit operations
• Laboratory courses and senior capstone design

Entry requirements

Applicants should hold a high school diploma or equivalent with strong preparation in mathematics (including calculus where available), chemistry and physics. Successful candidates typically demonstrate high academic achievement in STEM subjects and readiness for a rigorous engineering curriculum. Admissions may consider standardised test scores where submitted, recommendations, and a record of relevant extracurricular experience such as STEM clubs, research, internships or engineering projects.

Transfer applicants are evaluated on completed college-level coursework in calculus, physics and chemistry. International applicants must meet the university's academic and English-language proficiency requirements. Prospective students should consult the University of Tennessee admissions pages for specific documentation and any programme-specific advisement.

Career prospects

Graduates with a chemical engineering degree emphasising electrochemical engineering are prepared for roles across energy, manufacturing and materials sectors. Typical positions include process engineer, battery engineer, fuel cell and hydrogen systems engineer, corrosion engineer, electroplating/process development engineer, quality and production engineer, and R&D engineer. Employers include energy storage companies, automotive and aerospace manufacturers, industrial chemical firms, metals finishing shops, national laboratories and research institutes.

Many graduates choose to continue into graduate study (MS/PhD) in electrochemical engineering, materials science or related disciplines, or to pursue professional engineering licensure. The programme’s laboratory and design experience also provide a solid foundation for entrepreneurship and technology development in clean energy and electrochemical manufacturing.

Why study at University of Tennessee

The University of Tennessee provides chemical engineering students access to a comprehensive engineering curriculum, experienced faculty working in electrochemical science, and hands-on laboratory facilities. UT students benefit from collaborative research links with nearby national laboratories, industry partners, and interdisciplinary centres that support energy storage and materials research.

Undergraduates have opportunities for research assistantships, internships with regional and national employers, and active student chapters of professional societies such as AIChE. The college emphasises practical skills through lab courses and a senior design sequence, preparing graduates for technical roles or further study. These features make the University of Tennessee a strong environment for students focused on electrochemical engineering and energy technologies.