Michigan Technological University

What you'll study

This master's pathway combines core chemical engineering principles with specialised electrochemical topics. Students take a mix of advanced coursework and research, selecting modules that build competence in electrochemical systems design, materials for electrochemical applications, and analytical techniques.

• Core chemical engineering topics: transport phenomena, reaction engineering, chemical thermodynamics and process modelling to provide a firm engineering foundation.
• Electrochemical specialisms: electrochemical engineering and reactor design, electrochemical energy conversion and storage (batteries, fuel cells, electrolyzers), corrosion science and prevention, and electrochemical synthesis.
• Analytical and materials modules: electrochemical methods and instrumentation (voltammmetry, impedance spectroscopy), materials characterisation for electrodes and electrolytes, and surface science.
• Modelling and control: mathematical modelling of electrochemical cells, multi‑physics simulation (coupling mass, charge and heat transport) and process control for electrochemical systems.
• Project and research components: students pursue a thesis project under faculty supervision or a substantial non‑thesis design/project depending on the chosen plan of study. Research projects commonly involve hands‑on laboratory work, prototype testing and collaboration with faculty in related disciplines.
• Seminars and professional development: participation in departmental seminars, journal clubs and opportunities for presenting results at conferences are integral to the programme.

Entry requirements

Applicants are normally expected to hold a bachelor's degree in chemical engineering, materials science, mechanical engineering, electrical engineering or a closely related field from an accredited institution. Admissions decisions consider academic record, relevant laboratory or industry experience, letters of recommendation and a statement of purpose outlining research interests.

• Academic preparation: prior coursework in thermodynamics, transport phenomena, reaction engineering and basic electrochemistry is highly desirable.
• Research potential: evidence of research aptitude—such as undergraduate research projects, technical reports, or industry experience—is advantageous, particularly for thesis applicants.
• English language: international applicants must meet the university's English proficiency requirements.
• Additional information: some applicants may be invited to discuss research fit with potential faculty advisors; requirements for standardized tests and other documentation follow university graduate admissions policies.

Career prospects

Graduates with a master's in Chemical Engineering focused on electrochemical engineering are prepared for roles across industry, national laboratories and academia. The programme emphasises practical and analytical skills valued by employers in emerging and established sectors.

• Battery and energy storage industry: electrode and electrolyte development, cell testing, scale‑up and manufacturing process engineering.
• Fuel cells and electrolysis: system design, stack optimisation and integration for hydrogen production and power generation.
• Corrosion and protection: corrosion engineering, materials selection and preventative strategies for infrastructure and process equipment.
• Process and chemical industries: electrochemical process development, process control, and optimisation for specialty chemicals and metal finishing.
• Research and development: roles in corporate R&D, national labs or continuing to doctoral study in electrochemical science, materials or related engineering fields.
• Consulting and entrepreneurship: technical consulting, pilot‑plant development, and start‑ups commercialising electrochemical technologies.

Why study at Michigan Technological University

Michigan Tech has a long tradition of applied engineering research and strong interdisciplinary collaboration between chemical engineering, materials science, mechanical and electrical engineering. The university supports electrochemical research with well‑equipped laboratories for batteries, fuel cells, corrosion testing and electrochemical characterisation, enabling students to combine laboratory work with modelling and prototype testing.

• Faculty expertise: faculty members pursue research in energy storage, corrosion, electrochemical synthesis and related materials, providing a range of thesis opportunities.
• Hands‑on learning: small class sizes, direct supervision on research projects and access to pilot‑scale facilities support experiential learning and skill development.
• Industry and regional links: collaborations with regional and national industry partners and government labs create pathways for internships, sponsored projects and technology transfer.
• Interdisciplinary environment: close ties with other engineering departments and research centres foster multidisciplinary projects that reflect real‑world electrochemical problems.