University of Kansas

What you'll study

The programme builds a strong foundation in mathematics, physics and chemistry before moving into core chemical engineering subjects and specialised electrochemical topics. Early years emphasise calculus, differential equations, general and physical chemistry, materials science and engineering fundamentals. Core chemical engineering modules typically include thermodynamics, transport phenomena (momentum, heat and mass transfer), chemical reaction engineering, process control and plant design.

Electrochemical-focused modules cover the principles of electrochemistry, electrode kinetics, corrosion science, electrochemical materials, and applications such as batteries, fuel cells and electrochemical sensors. Practical laboratory classes and instrumentation courses teach electrochemical techniques (potentiometry, cyclic voltammetry, impedance spectroscopy), materials characterisation and scale-up considerations for electrochemical reactors.

The degree usually culminates in a capstone design or research project where students apply process design, safety and economic evaluation to an electrochemical engineering problem. Opportunities for undergraduate research with faculty, internships with industry partners and electives in materials, sustainability and control systems allow students to tailor their studies toward energy storage, corrosion mitigation, electroplating, or sensor development.

Entry requirements

Applicants are expected to have a strong background in mathematics and the physical sciences. Typical preparation includes advanced mathematics (calculus), chemistry and physics taken during secondary education. Admissions consider overall academic performance, the rigour of secondary courses, letters of recommendation and a personal statement demonstrating interest in engineering and electrochemical topics.

For domestic applicants, successful candidates normally present competitive secondary-school grades and completion of prerequisite subjects. International applicants should hold the equivalent secondary qualifications and demonstrate English language proficiency through accepted tests or institutional pathways when required.

Admitted students should be prepared for a mathematically intensive curriculum. Placement testing or preparatory coursework may be recommended for students who need to strengthen their background in calculus or chemistry.

Career prospects

Graduates with a chemical engineering degree emphasising electrochemical engineering are sought after across energy, manufacturing and environmental sectors. Common career paths include:

• Battery and energy storage engineer — development, testing and scale-up of lithium‑ion and emerging battery chemistries.
• Fuel cell and hydrogen systems engineer — design and optimisation of electrochemical conversion technologies for transport and stationary power.
• Corrosion engineer and materials specialist — corrosion prevention, coatings and material selection for infrastructure and process equipment.
• Process engineer and plant design — chemical process development, electrochemical reactor design and manufacturing scale-up.
• R&D scientist or technical specialist — laboratory research in electrochemical synthesis, sensors, or advanced materials in industry or national laboratories.
• Further study and academia — many graduates progress to master's or doctoral programmes in chemical engineering, materials science or energy-related fields.

Career support services and industry connections in the region help students secure internships and co‑op placements that lead to professional roles after graduation.

Why study at University of Kansas

The University of Kansas offers chemical engineering training within an engineering school that emphasises hands‑on learning, undergraduate research and industry engagement. Students benefit from laboratory facilities for materials characterisation and electrochemical testing, senior capstone projects that partner with industry or faculty research, and access to multidisciplinary collaborations across materials science and environmental engineering.

Smaller class sizes in upper‑level engineering courses allow for close faculty mentorship and opportunities to join active research groups working on energy conversion, corrosion and materials for electrochemical applications. The university's career services and engineering industry network provide practical pathways to internships and employment in the energy, manufacturing and technology sectors.

Overall, the programme prepares students for technical roles where an understanding of both chemical engineering fundamentals and electrochemical systems is essential, while offering the flexibility to pursue research or professional specialisation.