Florida State University

What you'll study

The programme combines advanced coursework with independent research leading to a doctoral dissertation. Early study typically covers advanced transport phenomena, electrochemical kinetics and thermodynamics, materials for electrochemical systems, and advanced chemical engineering analysis. Typical coursework modules and study areas include:

• Advanced Transport Phenomena (momentum, heat and mass transfer at an advanced level)
• Electrochemical Kinetics and Thermodynamics
• Materials for Energy Storage and Conversion (battery and fuel cell materials)
• Corrosion Science and Protection Strategies
• Electrochemical Reactor Design and Scale-up
• Advanced Characterisation Techniques (electrochemical impedance spectroscopy, cyclic voltammetry, X‑ray and electron microscopy methods)
• Computational Methods for Electrochemical Systems (multi-physics modelling, molecular simulation)

After completing required and elective coursework, students undertake laboratory and/or modelling research under the supervision of a faculty advisor. The programme includes qualifying examinations to demonstrate readiness for independent research, a proposal or candidacy stage, regular dissertation research and defence. Students also gain teaching experience through graduate assistantships and are encouraged to publish and present their work at conferences.

Entry requirements

Applicants are normally expected to hold a relevant bachelor’s degree; a master’s degree in chemical engineering, materials science, chemistry or a closely related discipline is advantageous. Typical requirements include:

• A strong undergraduate academic record in engineering, physical science or a related field.
• Evidence of research potential, such as a thesis, publications, research assistant experience or detailed research statement.
• Letters of recommendation from academic or professional referees who can comment on research ability.
• For international applicants, proof of English language proficiency (such as TOEFL or IELTS) unless exempt.

Standardised test requirements (such as the GRE) vary and may be optional; applicants should consult the department for current guidance. Successful candidates are typically those with demonstrated quantitative skills, prior laboratory or modelling experience in electrochemical or materials topics, and a clear fit with faculty research interests.

Career prospects

Graduates with a PhD in Electrochemical Engineering have a range of career paths available across academia, industry and government. Common destinations include:

• Academic research and teaching positions at universities and research institutions.
• R&D roles in industry sectors such as energy storage and batteries, fuel cells, electrolyzers, corrosion prevention and coatings, chemical manufacturing and process industries.
• Research scientist positions in national laboratories and government research centres working on large-scale energy and materials projects.
• Technical leadership roles in start-ups and established companies developing electrochemical devices and materials.
• Consulting or regulatory roles involving materials selection, life‑cycle analysis and failure investigation.

PhD training provides advanced experimental and modelling skills, project management experience, and a publication record that are valuable for leadership roles in both public and private sectors.

Why study at Florida State University

Florida State University’s Department of Chemical & Biomedical Engineering offers an environment well-suited to electrochemical research, with faculty whose expertise spans electrochemical energy conversion and storage, corrosion science, materials synthesis and characterisation, and multiscale modelling. Students benefit from access to specialised facilities and interdisciplinary centres on campus, opportunities to collaborate with neighbouring departments (chemistry, physics, materials science) and regional industry partners, and support for presenting and publishing research.

Located in Tallahassee, FSU provides a balance of a research-active university setting with access to growing technology and manufacturing sectors in the region. The programme emphasises close mentorship, funded research and teaching assistantships, and professional development to prepare graduates for research leadership, entrepreneurship and technical roles in the evolving electrochemical engineering landscape.