Vanderbilt University

What you'll study

The PhD combines advanced coursework with an extended, original research programme. Early-stage study typically covers core chemical engineering topics — transport phenomena, thermodynamics, reaction engineering and process analysis — alongside specialised electrochemical subjects such as electrochemical kinetics, electrode and electrolyte materials, modelling of electrochemical systems, and diagnostic techniques for batteries and fuel cells.

• Advanced core modules: transport phenomena, reaction engineering, statistical methods for research.
• Electrochemical specialisms: electrochemical kinetics and mechanisms, electrode materials and interfaces, ion transport in solids and liquids, battery and fuel cell design, electrochemical reactor engineering.
• Tools and methods: electrochemical characterisation (impedance spectroscopy, cyclic voltammetry), microscopy and spectroscopy for materials characterisation, multi-physics modelling and simulation, data-driven approaches for materials discovery.
• Professional development: research ethics, scientific communication, pedagogy and opportunities for teaching assistantships.

Programme structure is research-led. After completing required coursework, students undertake qualifying assessments, rotate or join a research group, and progress to an independent dissertation project supervised by faculty. The dissertation presents original research that advances knowledge in electrochemical engineering and is defended before a committee.

Entry requirements

Applicants are expected to hold a strong undergraduate degree in chemical engineering or a closely related discipline; many successful applicants also hold a master’s degree and have research experience. Admissions committees look for evidence of quantitative preparation, laboratory skills and a clear research interest in electrochemical topics.

• Academic transcripts demonstrating strong performance in core engineering, maths and science subjects.
• Research experience, shown through research projects, publications, or detailed descriptions in the statement of purpose.
• Letters of recommendation from academic or professional referees who can attest to research potential and technical ability.
• A statement of purpose outlining research interests, relevant experience and fit with potential faculty supervisors and research groups.
• Proof of English language proficiency if applicable.

Specific application materials and any standardised test policies are listed on the School of Engineering’s admissions pages; applicants are encouraged to identify potential faculty mentors before applying.

Career prospects

Graduates with a PhD in Chemical Engineering specialising in electrochemical engineering move into a variety of research and leadership roles. Common career paths include:

• Academic careers: postdoctoral research and faculty positions, focusing on electrochemical energy conversion, materials and devices.
• National laboratories and research institutes conducting advanced energy storage and conversion research.
• Industry R&D: battery and battery materials manufacturers, fuel cell and electrolyser companies, chemical and materials firms, semiconductor and sensor industries.
• Technology translation and startups: leading product development, scale-up and commercialisation of electrochemical technologies.
• Consulting and policy roles that require deep technical knowledge of electrochemical systems, lifecycle analysis and energy technologies.

PhD training also develops transferable skills in modelling, experimental design, data analysis and project management that are valuable across sectors.

Why study at Vanderbilt University

Vanderbilt offers an interdisciplinary research environment with strong collaborations between chemical engineering, materials science, physics and chemistry. The university hosts research institutes and centres that support energy and materials research, providing access to shared facilities for nanofabrication, advanced microscopy and electrochemical characterisation.

• Faculty expertise spanning fundamental electrochemistry, materials development and systems-level energy research.
• Access to modern laboratories and instrumentation for synthesis, in situ characterisation and multi-scale modelling.
• Opportunities for collaborative projects with other departments and external partners, including national labs and industry.
• A supportive doctoral training environment with mentoring, teaching experience, and professional development resources to prepare graduates for diverse careers.

These features make Vanderbilt a productive place to pursue doctoral research in electrochemical engineering and to build the skills needed for leadership in research and technology development.