Michigan Technological University

What you'll study

The programme centres on original research in electrochemical systems supported by a flexible portfolio of advanced coursework. Typical topics include electrochemical kinetics and thermodynamics, electrode and electrolyte materials, battery and fuel-cell design, corrosion science, electrochemical synthesis, transport phenomena in porous electrodes, multiscale modelling, and advanced characterisation techniques (electrochemical impedance spectroscopy, cyclic voltammetry, spectroscopy and microscopy methods).

Students normally complete a combination of graduate-level core and elective courses chosen with their advisor, lab rotations or early research projects, and a seminar series. Coursework prepares students for a qualifying or comprehensive examination and for independent research. The major component of the degree is a doctoral dissertation based on original experimental, computational or theoretical work, culminating in a public defence.

• Advanced transport phenomena and applied electrochemistry
• Materials for energy storage and conversion
• Electrode kinetics and interface science
• Electrochemical characterisation and diagnostics
• Computational modelling of electrochemical devices
• Research seminar and professional development

Entry requirements

Applicants typically hold a relevant master's degree (for example chemical engineering, materials science, electrochemistry, or closely related disciplines) or a strong bachelor’s degree with significant research experience. Expected elements of a successful application include a strong academic record, a statement of research interests that aligns with departmental strengths, a curriculum vitae, and letters of recommendation from academic or professional referees.

International applicants must demonstrate English language proficiency in line with university policy. Admission is competitive and research fit with a faculty member is a key factor; prospective students are encouraged to contact potential supervisors before applying. Many students enter with prior laboratory or modelling experience in electrochemical systems, materials synthesis or related engineering research.

Career prospects

Graduates with a PhD in Chemical Engineering focused on electrochemical engineering pursue careers across academia, government laboratories and industry. Common paths include research and development roles in battery and energy storage companies, fuel cell and hydrogen technology firms, corrosion and materials testing organisations, and semiconductor or electroplating industries. Other outcomes include positions in national research laboratories, postdoctoral research, technology commercialisation and consulting in energy and materials sectors.

The combination of deep electrochemical expertise, materials understanding and quantitative skills also prepares graduates for roles in modelling and simulation groups, regulatory agencies, and leadership positions in engineering-driven startups.

Why study at Michigan Technological University

Michigan Technological University offers a research-intensive environment with strengths in electrochemical engineering and materials science, and access to well-equipped laboratories for battery testing, materials characterisation and electrochemical diagnostics. The university emphasises interdisciplinary collaboration across departments and with external partners, providing opportunities to work on applied energy projects and translational research.

Students benefit from close faculty mentoring, opportunities for teaching and outreach, and links with regional and national industry and research centres focused on energy storage, power systems and advanced materials. Financial support is commonly available through research and teaching assistantships, enabling doctoral students to focus on their research and professional development.